mhurhangee/ep-ind-claims huggingface dataset:
A tire for two-wheel vehicles comprising a pair of bead sections, a pair of side wall sections, and a tread section continuing to both sidewall sections, wherein the tread section is divided into three by the center section including the tire equatorial plane and the pair of shoulder sections including the tread end in the tire width direction, both the tread rubber of the center section and the tread rubber of the shoulder sections comprise a rubber component comprising a styrene-butadiene rubber and a modified conjugated diene polymer and silica, and the tread rubber of the center section and the tread rubber of the shoulder sections include 40 to 120 parts by mass of a filler based on 100 parts by mass of the rubber component, wherein the silica content in the filler is 80% by mass or more, wherein the tread rubber of the center section and the tread rubber of the shoulder sections satisfy the relation: 1.0 < [{tan δ at 0°C of the tread rubber at the center section}/{tan δ at 0°C of the tread rubber at the shoulder sections}], wherein an amount of the styrene-butadiene rubber in the rubber component is 50 mass% or more and, wherein an amount of the modified conjugated diene polymer in the rubber component is 10 mass% or more.
Fill level measurement device for determining a topology of a surface of a filling material or bulk material, the fill level measurement device comprising: an antenna unit configured to emit a measurement signal towards the surface of the filling material or bulk material in a direction of a main emission axis of the antenna unit relative to the surface, which direction can be changed by the fill level measurement device, in order to sample the surface, and configured to receive the measurement signal reflected at the filling material surface; characterized in that the fill level measurement device comprises an evaluation unit configured to determine the topology of the surface of the filling material or bulk material from the received measurement signal reflected at the filling material surface and a distance between a source of the measurement signal and a center of rotation of the main emission axis, wherein the evaluation unit is configured to compensate for the fact that the source of the measurement signal does not lie in the center of rotation of the main emission axis. an antenna unit configured to emit a measurement signal towards the surface of the filling material or bulk material in a direction of a main emission axis of the antenna unit relative to the surface, which direction can be changed by the fill level measurement device, in order to sample the surface, and configured to receive the measurement signal reflected at the filling material surface; characterized in that the fill level measurement device comprises an evaluation unit configured to determine the topology of the surface of the filling material or bulk material from the received measurement signal reflected at the filling material surface and a distance between a source of the measurement signal and a center of rotation of the main emission axis, wherein the evaluation unit is configured to compensate for the fact that the source of the measurement signal does not lie in the center of rotation of the main emission axis.
A method comprising: receiving, by a centralized controller network device (20, 25) of a network having an optical network layer and a service network layer, a request for network connectivity between network sites; sending, by the centralized controller network device to one or more components of the optical network layer, one or more messages containing a first set of parameters to establish an optical transport path for the requested network connectivity; sending, by the centralized controller network device to one or more components of the service network layer, one or more messages containing a second set of parameters to establish a traffic-engineered service path for the requested network connectivity, wherein the service path is established to send network traffic over the optical transport path; responsive to determining that both the optical transport path and the service path have been established, sending, by the centralized controller network device, an indication that the request for network connectivity is granted to permit use of the service path and the optical transport path for sending network traffic between the network sites; determining, by the centralized controller network device, that the optical transport path is no longer needed; and responsive to determining that the optical transport path is no longer needed, instructing, by the centralized controller network device, the one or more components of the optical network layer to tear down the optical transport path. receiving, by a centralized controller network device (20, 25) of a network having an optical network layer and a service network layer, a request for network connectivity between network sites; sending, by the centralized controller network device to one or more components of the optical network layer, one or more messages containing a first set of parameters to establish an optical transport path for the requested network connectivity; sending, by the centralized controller network device to one or more components of the service network layer, one or more messages containing a second set of parameters to establish a traffic-engineered service path for the requested network connectivity, wherein the service path is established to send network traffic over the optical transport path; responsive to determining that both the optical transport path and the service path have been established, sending, by the centralized controller network device, an indication that the request for network connectivity is granted to permit use of the service path and the optical transport path for sending network traffic between the network sites; determining, by the centralized controller network device, that the optical transport path is no longer needed; and responsive to determining that the optical transport path is no longer needed, instructing, by the centralized controller network device, the one or more components of the optical network layer to tear down the optical transport path.
A deep groove ball bearing with a split cage, comprising an outer ring, an inner ring, a cage, and steel balls, wherein the cage is arranged between the outer ring and the inner ring, the cage is split into an upper frame body, a bearing frame, and a lower frame body, pocket grooves configured to accommodate the steel balls are formed in the bearing frame at intervals, the bearing frame is provided with a connecting piece between any two adjacent pocket grooves, a first insertion groove is formed in an outer wall of the connecting piece, a second insertion groove is formed in an inner wall of the connecting piece, a connecting groove is formed in a bottom surface of each of the pocket grooves, an oil storage cavity is formed in the upper frame body, an opening of the oil storage cavity is arranged toward the connecting groove, the oil storage cavity is provided with oil storage cotton, the oil storage cavity is provided with a positioning flange in a circumferential direction of the opening, the positioning flange is in insertion fit with the connecting groove to form a fixed connection between the upper frame body and the bearing frame, the lower frame body is provided with arc-shaped grooves at positions corresponding to the pocket grooves, each of the arc-shaped grooves and each of the pocket grooves are combined to form a pocket hole, a connecting seat is formed between any two adjacent arc-shaped grooves on the lower frame body, a first insertion member and a second insertion member are arranged on the connecting seat, a clamping gap is formed between the first insertion member and the second insertion member, the first insertion member is in insertion fit with the first insertion groove, the second insertion member is in insertion fit with the second insertion groove, ends of the first insertion member and the second insertion member pass through the bearing frame and form positioning members, the upper frame body is provided with positioning holes at positions corresponding to the positioning members, and each of the positioning members is in insertion fit with each of the positioning holes.
A method performed by an electronic device, the method comprising: wirelessly transmitting graphical data to a cover device for displaying the graphical data on a second display of the cover device, while the electronic device is accommodated by the cover device; displaying, on a first display of the electronic device, an icon for interrupting displaying the graphical data on the second display; receiving a user input on the icon; and in response to receiving the user input on the icon, stopping displaying the graphical data on the second display of the cover device. wirelessly transmitting graphical data to a cover device for displaying the graphical data on a second display of the cover device, while the electronic device is accommodated by the cover device; displaying, on a first display of the electronic device, an icon for interrupting displaying the graphical data on the second display; receiving a user input on the icon; and in response to receiving the user input on the icon, stopping displaying the graphical data on the second display of the cover device.
A packing member for packing an article, said packing member comprising: a medium accommodating portion accommodating a cushioning medium; a non-return valve for passing the medium toward said medium accommodating portion along a longitudinal direction of said medium accommodating portion and for stopping the medium in an opposite direction away from said medium accommodating portion; and a flow path for passing the medium, said flow path being formed by welding said non-return valve to said medium accommodating portion, with said flow path having a width smaller than a width of said medium accommodating portion as measured in a crossing direction which crosses with the longitudinal direction, and said flow path including a reference flow path portion extending in the longitudinal direction and an expanded flow path portion (20a, 20b) formed of welded wide portions (12a3 - 12a5, 12a7 - 12a9, 12b3 - 12b5, 12b7 - 12b9) which extend in the crossing direction from said reference flow path portion so as to extend the flow path, wherein said reference flow path portion is provided with an inlet for receiving the medium from outside of said medium accommodating portion and an outlet (20c1) for supplying the medium into said medium accommodating portion, and said expanded flow path portion (20a, 20b) is disposed between said inlet and said outlet (20c1) in the longitudinal direction. a medium accommodating portion accommodating a cushioning medium; a non-return valve for passing the medium toward said medium accommodating portion along a longitudinal direction of said medium accommodating portion and for stopping the medium in an opposite direction away from said medium accommodating portion; and a flow path for passing the medium, said flow path being formed by welding said non-return valve to said medium accommodating portion, with said flow path having a width smaller than a width of said medium accommodating portion as measured in a crossing direction which crosses with the longitudinal direction, and said flow path including a reference flow path portion extending in the longitudinal direction and an expanded flow path portion (20a, 20b) formed of welded wide portions (12a3 - 12a5, 12a7 - 12a9, 12b3 - 12b5, 12b7 - 12b9) which extend in the crossing direction from said reference flow path portion so as to extend the flow path, wherein said reference flow path portion is provided with an inlet for receiving the medium from outside of said medium accommodating portion and an outlet (20c1) for supplying the medium into said medium accommodating portion, and said expanded flow path portion (20a, 20b) is disposed between said inlet and said outlet (20c1) in the longitudinal direction.
An encryption method by an electronic device, characterized by comprising: receiving a first data segment of a content file through a network, wherein the first data segment is not encrypted; generating second encryption information based on at least part of the first data segment; receiving a second data segment of the content file; encrypting the second data segment using the second encryption information; determining a storage medium in which the encrypted second data segment is to be stored among a plurality of storage mediums based on a value calculated by subtracting a specific value from the first data segment; and storing the encrypted second data segment in the storage medium. receiving a first data segment of a content file through a network, wherein the first data segment is not encrypted; generating second encryption information based on at least part of the first data segment; receiving a second data segment of the content file; encrypting the second data segment using the second encryption information; determining a storage medium in which the encrypted second data segment is to be stored among a plurality of storage mediums based on a value calculated by subtracting a specific value from the first data segment; and storing the encrypted second data segment in the storage medium.
A multi-compartment transport refrigeration system comprising: a compressor having a suction port and a discharge port, the compressor suction port coupled to a compressor inlet path; a heat rejecting heat exchanger downstream of the compressor discharge port; a first evaporator expansion device downstream of the heat rejecting heat exchanger; a first evaporator having a first evaporator inlet coupled to the first evaporator expansion device and a first evaporator outlet coupled to the compressor inlet path, the first evaporator for cooling a first compartment of a container at a first temperature; a first return air temperature sensor to generate the first temperature; a second evaporator expansion device downstream of the heat rejecting heat exchanger; a second evaporator having a second evaporator inlet coupled to the second evaporator expansion device and a second evaporator outlet coupled to the compressor inlet path, the second evaporator for cooling a second compartment of the container at a second temperature greater than the first temperature; a second return air temperature sensor to generate the second temperature; and a controller for controlling the first evaporator expansion device in response to a first superheat setpoint and controlling the second evaporator expansion device in response to a second superheat setpoint; characterized in that the controller is configured to adjust the second superheat setpoint in response to the second temperature and the first temperature. a compressor having a suction port and a discharge port, the compressor suction port coupled to a compressor inlet path; a heat rejecting heat exchanger downstream of the compressor discharge port; a first evaporator expansion device downstream of the heat rejecting heat exchanger; a first evaporator having a first evaporator inlet coupled to the first evaporator expansion device and a first evaporator outlet coupled to the compressor inlet path, the first evaporator for cooling a first compartment of a container at a first temperature; a first return air temperature sensor to generate the first temperature; a second evaporator expansion device downstream of the heat rejecting heat exchanger; a second evaporator having a second evaporator inlet coupled to the second evaporator expansion device and a second evaporator outlet coupled to the compressor inlet path, the second evaporator for cooling a second compartment of the container at a second temperature greater than the first temperature; a second return air temperature sensor to generate the second temperature; and a controller for controlling the first evaporator expansion device in response to a first superheat setpoint and controlling the second evaporator expansion device in response to a second superheat setpoint; characterized in that the controller is configured to adjust the second superheat setpoint in response to the second temperature and the first temperature.
Shears, comprising a shears head having a first shears leg and a second shears leg which are articulated to one another for pivotal movement about a first pivot axis, and a holding device having a first handle and a second handle, which are articulated to one another for pivotal movement about a second pivot axis, wherein the first shears leg is articulated to the first handle for pivotal movement about a third pivot axis and the second shears leg is articulated to the second handle for pivotal movement about a fourth pivot axis, and a catch strap which is arranged on the one handle and acts upon the other handle, wherein the catch strap is configured as an opening limiter for the shears head which adjusts a maximum opening width, characterized in that the catch strap is arranged on the holding device on a side which, relative to the second pivot axis, faces away from the side on which is located the first pivot axis.
A computer-implemented method for estimating future axial elongation of an individual's eye comprising: receiving, via an interface at a computer, data relating to refractive change in a prior pre-determined time period for the individual from a reference timepoint; receiving, via the interface, data representing an age of the individual and data representing a current axial length value of the eye as measured at the reference timepoint; predicting, by a processor, a future axial elongation of the eye as a function of the age of the individual, the current axial length value of the eye as measured at the reference timepoint, and said refractive change in the prior pre-determined time period; generating, an output indication of said predicted future axial elongation of the eye via the interface. receiving, via an interface at a computer, data relating to refractive change in a prior pre-determined time period for the individual from a reference timepoint; receiving, via the interface, data representing an age of the individual and data representing a current axial length value of the eye as measured at the reference timepoint; predicting, by a processor, a future axial elongation of the eye as a function of the age of the individual, the current axial length value of the eye as measured at the reference timepoint, and said refractive change in the prior pre-determined time period; generating, an output indication of said predicted future axial elongation of the eye via the interface.
A barcode reading station comprising: a holster for a barcode reader, the barcode reader producing a scan volume; a barcode reading table for identifying a target location for barcode reading; a mirror for deflecting the scan volume of the barcode reader towards the barcode reading table; the holster being oriented at a downward angle from horizontal; characterised by; a hood coupled to the holster, the hood being arranged to prevent a person on a first side of the station from viewing a display of the barcode reader whilst allowing a person on a second side of the station to view the display. a holster for a barcode reader, the barcode reader producing a scan volume; a barcode reading table for identifying a target location for barcode reading; a mirror for deflecting the scan volume of the barcode reader towards the barcode reading table; the holster being oriented at a downward angle from horizontal; characterised by; a hood coupled to the holster, the hood being arranged to prevent a person on a first side of the station from viewing a display of the barcode reader whilst allowing a person on a second side of the station to view the display.
Children's or teenage ski boot in a shoe size according to ISO 5355 from 15 to 25 with a rigid ski boot shell and a ski boot sole with a front connection area for a front toe part of a ski binding, wherein the ski boot sole includes a sole underside rising from the contact point of the ski boot sole on a level standing surface to the front sole end in the front connection area, which is equipped with a contact section for a sole support of the front toe part, characterised in that, in a ski boot positioned on a level standing surface, - the distance (a 1) of the contact point calculated parallel to the standing surface or the frontmost point of the contact point of the ski boot sole from the front sole end is 45 mm to 65 mm, - and that the distance (b 2) from the level of the upper edge of the front sole end existing at the point of the contact section which is located vertical to the contact area at a distance (a 3) calculated parallel to the standing surface of 32 mm ± 2 mm from the front sole end is 16.5 mm ± 1.5 mm, wherein the distance of the sole underside from the level of the upper edge of the front sole end prior to this point is less and grows larger after this point, calculated vertical to the standing surface, wherein the contact section is designed as a shallow, in particular 1 mm to 1.5 mm deep recess in the ski boot sole. - the distance (a 1) of the contact point calculated parallel to the standing surface or the frontmost point of the contact point of the ski boot sole from the front sole end is 45 mm to 65 mm, - and that the distance (b 2) from the level of the upper edge of the front sole end existing at the point of the contact section which is located vertical to the contact area at a distance (a 3) calculated parallel to the standing surface of 32 mm ± 2 mm from the front sole end is 16.5 mm ± 1.5 mm, wherein the distance of the sole underside from the level of the upper edge of the front sole end prior to this point is less and grows larger after this point, calculated vertical to the standing surface,
Device for chromatic discrimination and counting of organisms in liquid medium, comprising: a channel for conducting the sample, wherein the channel has an inner section so that organisms are driven sequentially one-by-one through that channel; a collector for conducting the sample to that channel; one or more light emitters to emit a chromatic signal to that channel; two or more light receivers to capture the chromatic signal of the organism intercepting that channel; wherein light emitters and receivers are radially distributed around an optical window located in a cross section of the stylet; wherein the chromatic signal present in the channel is a chromatic signal absorbed, reflected, refracted and/or self-issued by the organisms; wherein to capture the chromatic signal absorbance of the organism, one or more light receivers of the two or more light receivers is at an angle of 180° from a light emitter of the one or more light emitters; an electronic data processor configured to differentiate the organisms counted according to the chromatic signal received; wherein the organisms are neonates of Daphnia, Ceriodaphnia, and Artemia, fish eggs, and similar organisms. a channel for conducting the sample, wherein the channel has an inner section so that organisms are driven sequentially one-by-one through that channel; a collector for conducting the sample to that channel; one or more light emitters to emit a chromatic signal to that channel; two or more light receivers to capture the chromatic signal of the organism intercepting that channel; wherein light emitters and receivers are radially distributed around an optical window located in a cross section of the stylet; wherein the chromatic signal present in the channel is a chromatic signal absorbed, reflected, refracted and/or self-issued by the organisms; wherein to capture the chromatic signal absorbance of the organism, one or more light receivers of the two or more light receivers is at an angle of 180° from a light emitter of the one or more light emitters; an electronic data processor configured to differentiate the organisms counted according to the chromatic signal received; wherein the organisms are neonates of Daphnia, Ceriodaphnia, and Artemia, fish eggs, and similar organisms.