mhurhangee/ep-ind-claims huggingface dataset:
A radiography machine for radiographing a subject comprising: a radiography unit including a radiation source and a detector; a housing unit housing the radiation source and the detector and defining an alignment area for the subject between the radiation source and the detector; an alignment unit configured to provide alignment criteria for radiographing the subject and including the housing unit; and a subject check unit including a transparent display configured to display a guide line to overlap a specific part of the subject, characterized in that the subject check unit is installed in the housing unit to surround a part of the alignment area, and the subject check unit further comprises a transparent touch panel and a preference setting interface configured to control detail settings of the radiography unit according to an user command input to the touch panel. a radiography unit including a radiation source and a detector; a housing unit housing the radiation source and the detector and defining an alignment area for the subject between the radiation source and the detector; an alignment unit configured to provide alignment criteria for radiographing the subject and including the housing unit; and a subject check unit including a transparent display configured to display a guide line to overlap a specific part of the subject, characterized in that the subject check unit is installed in the housing unit to surround a part of the alignment area, and the subject check unit further comprises a transparent touch panel and a preference setting interface configured to control detail settings of the radiography unit according to an user command input to the touch panel.
An electromagnetic radiation absorber comprising: a conducting base layer; a plurality of further layers, including at least a first and a second layer, and all separated from each other with dielectric material; the first layer including a first array of conducting patches; the second layer including a second array of conducting patches; said base layer, first layer and second layer being spaced apart from, and electrically isolated from one another; characterised in that: a) patches of said second layer are stacked so as to overlie patches of said first layer, with the patches overlying one another to form stacks; b) each patch is highly conductive, and defines a resonant cavity in cooperation with the conductive patch or the conductive base layer below it, and the dielectric material therebetween, c) patches of the second array are smaller than patches of the first array, wherein a resonant frequency of the cavity is different from a resonant frequency of an adjacent cavity above or below it, and d) the periodicity of the second array is substantially the same as that of the first array. a conducting base layer; a plurality of further layers, including at least a first and a second layer, and all separated from each other with dielectric material; the first layer including a first array of conducting patches; the second layer including a second array of conducting patches; said base layer, first layer and second layer being spaced apart from, and electrically isolated from one another; characterised in that: a) patches of said second layer are stacked so as to overlie patches of said first layer, with the patches overlying one another to form stacks; b) each patch is highly conductive, and defines a resonant cavity in cooperation with the conductive patch or the conductive base layer below it, and the dielectric material therebetween, c) patches of the second array are smaller than patches of the first array, wherein a resonant frequency of the cavity is different from a resonant frequency of an adjacent cavity above or below it, and d) the periodicity of the second array is substantially the same as that of the first array. a) patches of said second layer are stacked so as to overlie patches of said first layer, with the patches overlying one another to form stacks; b) each patch is highly conductive, and defines a resonant cavity in cooperation with the conductive patch or the conductive base layer below it, and the dielectric material therebetween, c) patches of the second array are smaller than patches of the first array, wherein a resonant frequency of the cavity is different from a resonant frequency of an adjacent cavity above or below it, and d) the periodicity of the second array is substantially the same as that of the first array.
A cover for a technical opening in the wall or ceiling of a construction consisting of a door and a frame, wherein in the door there is formed an opening for insertion of a card, especially a credit card or similar card, characterised in that on the inner side of the cover there are housings fixed on segments on opposite sides of the frame, wherein the housings are designed to receive and fix securing rods in a closed state of the door by means of pushing springs, that on each side of the opening there is located a slider in the shape of the letter "U", wherein an end of the slider extends into the opening and at this end there is formed a slant and an other end of the slider is connected with the rod at the opposite end of the opening between the pushing spring and the housing and that the sliders are designed to move the rods towards each other and out of the housings during the insertion of the card into the opening, wherein the card pushes against the slants of the sliders, thereby pushes the sliders apart and wherein the door is enabled to transition to an opened state.
A method comprising: receiving, from a first sensor on a robot, first sensor data indicative of an environment of the robot; identifying, based on the first sensor data, an object and an object type of the object in the environment of the robot by inputting the first sensor data into a first classifier, wherein the identified object type is associated with a second classifier that has been trained on sensor data from a predetermined pose relative to different objects of the same object type as the identified object; causing the robot to position a second sensor on the robot at the predetermined pose relative to the identified object; receiving, from the second sensor, second sensor data indicative of the identified object while the second sensor is positioned at the predetermined pose relative to the identified object; and determining, by inputting the second sensor data into the second classifier, a property of the identified object. receiving, from a first sensor on a robot, first sensor data indicative of an environment of the robot; identifying, based on the first sensor data, an object and an object type of the object in the environment of the robot by inputting the first sensor data into a first classifier, wherein the identified object type is associated with a second classifier that has been trained on sensor data from a predetermined pose relative to different objects of the same object type as the identified object; causing the robot to position a second sensor on the robot at the predetermined pose relative to the identified object; receiving, from the second sensor, second sensor data indicative of the identified object while the second sensor is positioned at the predetermined pose relative to the identified object; and determining, by inputting the second sensor data into the second classifier, a property of the identified object.
A laminated sheet having two or more layers of sheet comprising ultrafine cellulose fibers with a fiber width of 2 to 100 nm, when observed under an electron microscope, wherein the ultrafine cellulose fibers have an anionic group, and wherein among two or more layers of the sheet, when the thickness (μm) of the thickest sheet is defined as T max and the thickness (μm) of the thinnest sheet is defined as T min, the value of T max /T min is 3 or less, and the thickness of a single layer of the sheet is 15 μm or more, wherein the entire thickness is 30 μm or more.
A pressure sensor system formed by the method according to claim 6 comprising: a tube having a center passage; a substrate formed around the tube, the substrate having a trench open to a top side, such that a top portion of the tube is exposed in the trench and the center passage of the tube forms at least a portion of a passage through the substrate; a pressure sensor die having a membrane supported by a frame, wherein the membrane and the frame define a backside cavity in the pressure sensor die, and wherein a portion of the frame is located in the trench such that the top portion of the tube is located in the backside cavity of the pressure sensor die; a first material located in the trench, wherein the first material is located between a bottom of the frame and a bottom surface of the trench; and a second material located in the trench and on the first material, wherein the second material surrounds a bottom portion of the frame. a tube having a center passage; a substrate formed around the tube, the substrate having a trench open to a top side, such that a top portion of the tube is exposed in the trench and the center passage of the tube forms at least a portion of a passage through the substrate; a pressure sensor die having a membrane supported by a frame, wherein the membrane and the frame define a backside cavity in the pressure sensor die, and wherein a portion of the frame is located in the trench such that the top portion of the tube is located in the backside cavity of the pressure sensor die; a first material located in the trench, wherein the first material is located between a bottom of the frame and a bottom surface of the trench; and a second material located in the trench and on the first material, wherein the second material surrounds a bottom portion of the frame.
A carrying bag comprising: a top portion defining an opening having a perimeter and including a passage which extends along said perimeter; a bottom portion opposite said top portion; at least one strap member and at least one pad member engaging said at least one strap member, wherein said at least one strap member is coupled to said bottom portion and configured to extend over a wearer's shoulders, said at least one strap member extending to said top portion and being slidably retained within said passage; characterized in that said at least one pad member is attached to said carrying bag, wherein said at least one pad member is fastened to the top portion of said bag, and said at least one pad member is configured to slidably retain said at least one strap member. a top portion defining an opening having a perimeter and including a passage which extends along said perimeter; a bottom portion opposite said top portion; at least one strap member and at least one pad member engaging said at least one strap member, wherein said at least one strap member is coupled to said bottom portion and configured to extend over a wearer's shoulders, said at least one strap member extending to said top portion and being slidably retained within said passage; characterized in that said at least one pad member is attached to said carrying bag, wherein said at least one pad member is fastened to the top portion of said bag, and said at least one pad member is configured to slidably retain said at least one strap member.
A system comprising: one or more processors; and at least one computer-readable storage medium having stored therein instructions which, when executed by the one or more processors, cause the system to: discover a path from a first endpoint in a first cloud to a second endpoint in a second cloud; determine runtime policy table capacities associated with nodes in the path, wherein corresponding runtime policy table capacities in the path indicate a total capacity of each of the nodes for implementing rules of policies; determine policy distribution for splitting policies on a per-node basis across at least a portion of a plurality of nodes in the path and enforcement for traffic from the first endpoint to the second endpoint based on the runtime policy table capacities associated with the nodes in the path; install policies on a set of the nodes in the path based on the policy distribution and enforcement; and apply the policies to data transmitted from the first endpoint in the first cloud to the second endpoint in the second cloud. one or more processors; and at least one computer-readable storage medium having stored therein instructions which, when executed by the one or more processors, cause the system to: discover a path from a first endpoint in a first cloud to a second endpoint in a second cloud; determine runtime policy table capacities associated with nodes in the path, wherein corresponding runtime policy table capacities in the path indicate a total capacity of each of the nodes for implementing rules of policies; determine policy distribution for splitting policies on a per-node basis across at least a portion of a plurality of nodes in the path and enforcement for traffic from the first endpoint to the second endpoint based on the runtime policy table capacities associated with the nodes in the path; install policies on a set of the nodes in the path based on the policy distribution and enforcement; and apply the policies to data transmitted from the first endpoint in the first cloud to the second endpoint in the second cloud. discover a path from a first endpoint in a first cloud to a second endpoint in a second cloud; determine runtime policy table capacities associated with nodes in the path, wherein corresponding runtime policy table capacities in the path indicate a total capacity of each of the nodes for implementing rules of policies; determine policy distribution for splitting policies on a per-node basis across at least a portion of a plurality of nodes in the path and enforcement for traffic from the first endpoint to the second endpoint based on the runtime policy table capacities associated with the nodes in the path; install policies on a set of the nodes in the path based on the policy distribution and enforcement; and apply the policies to data transmitted from the first endpoint in the first cloud to the second endpoint in the second cloud.
A method for generating a time table determining the data exchange times between at least one control unit and at least two wireless sensors in a vehicle which comprises said at least one control unit for controlling the functioning of the vehicle; and said at least two wireless sensors detecting the properties of components of the vehicle and/or surrounding parameters and suitable for carrying out data exchange with a control unit by establishing wireless connection with at least one wireless port provided in the control unit, characterized by comprising the steps of - calculating data exchange periods and/or data exchange durations between each sensor and the control unit; - generating a time table having an adjustable table length according to the calculated and/or predetermined data exchange periods and/or data exchange durations; - splitting the time table into subunits according to the calculated and/or predetermined data exchange periods and/or data exchange durations; and - entering the times at which each sensor is to perform data exchange with the control unit into the table according to a predefined order of priority, which is calculated based on the data exchange period and/or the data exchange duration of each sensor. - calculating data exchange periods and/or data exchange durations between each sensor and the control unit; - generating a time table having an adjustable table length according to the calculated and/or predetermined data exchange periods and/or data exchange durations; - splitting the time table into subunits according to the calculated and/or predetermined data exchange periods and/or data exchange durations; and - entering the times at which each sensor is to perform data exchange with the control unit into the table according to a predefined order of priority, which is calculated based on the data exchange period and/or the data exchange duration of each sensor.
Bicycle free wheel comprising: a first annular body, at least partially ferromagnetic, rotatable about a rotation axis, configured to be rotatably integral with sprockets of a bicycle and comprising a first crown gear; a second annular body rotatable about said rotation axis, configured to be rotatably integral with a rear wheel of a bicycle and comprising a second crown gear matching with and facing towards said first crown gear; said first annular body being axially mobile with respect to the second annular body between an engagement condition in which the first crown gear is coupled with the second crown gear and a disengagement condition in which the first crown gear is decoupled from the second crown gear; at least one magnetic body, characterized in that, said at least one magnetic body has an axial extension, arranged radially externally with respect to said first annular body; said first annular body in the disengagement condition is at least partially contained in an axial space occupied by the magnetic body. a first annular body, at least partially ferromagnetic, rotatable about a rotation axis, configured to be rotatably integral with sprockets of a bicycle and comprising a first crown gear; a second annular body rotatable about said rotation axis, configured to be rotatably integral with a rear wheel of a bicycle and comprising a second crown gear matching with and facing towards said first crown gear; said first annular body being axially mobile with respect to the second annular body between an engagement condition in which the first crown gear is coupled with the second crown gear and a disengagement condition in which the first crown gear is decoupled from the second crown gear; at least one magnetic body, characterized in that, said at least one magnetic body has an axial extension, arranged radially externally with respect to said first annular body; said first annular body in the disengagement condition is at least partially contained in an axial space occupied by the magnetic body.
A stabilizer leg control system for controlling at least one stabilizer leg arranged to support the stability of a vehicle, the control system comprises: - a control unit configured to control the operation of said at least one stabilizer leg, - a user interface unit comprising a user interface configured to receive user input to control various functions of the vehicle, including to control the operation of said at least one stabilizer leg of said vehicle, and to establish bidirectional communication to said control unit by a communication signal, and a receiver unit, - at least one transmission unit structured to be mounted at, or in the vicinity of, each of said at least one stabilizer leg, wherein said transmission unit is configured to transmit a transmission unit signal, c haracterized in that said user interface is configured to receive a stabilizer leg activation input from a user when said at least one stabilizer leg is to be operated, and upon receipt of a stabilizer activation input, the user interface unit is configured to generate a transmission unit activation signal, wherein said transmission unit is configured to be activated, and to generate said transmission unit signal, upon direct or indirect receipt of said transmission unit activation signal, and wherein said user interface unit is configured to receive said transmission unit signal by said receiver unit, and upon receipt of said transmission unit signal the user interface unit is enabled to operate the stabilizer leg related to the transmission unit that generated the transmission unit signal. - a control unit configured to control the operation of said at least one stabilizer leg, - a user interface unit comprising a user interface configured to receive user input to control various functions of the vehicle, including to control the operation of said at least one stabilizer leg of said vehicle, and to establish bidirectional communication to said control unit by a communication signal, and a receiver unit, - at least one transmission unit structured to be mounted at, or in the vicinity of, each of said at least one stabilizer leg, wherein said transmission unit is configured to transmit a transmission unit signal, c haracterized in that said user interface is configured to receive a stabilizer leg activation input from a user when said at least one stabilizer leg is to be operated, and upon receipt of a stabilizer activation input, the user interface unit is configured to generate a transmission unit activation signal, wherein said transmission unit is configured to be activated, and to generate said transmission unit signal, upon direct or indirect receipt of said transmission unit activation signal, and wherein said user interface unit is configured to receive said transmission unit signal by said receiver unit, and upon receipt of said transmission unit signal the user interface unit is enabled to operate the stabilizer leg related to the transmission unit that generated the transmission unit signal.
Measuring insert especially for measuring temperature, wherein the measuring insert has a core part (3.5), in which core part (3.5) bores (3.7) for receiving electric conductors, e.g. thermoelements of a thermocouple or connection wires of a RTD, are provided, which bores (3.7) extend from the top to the bottom of the core part, wherein at the bottom there is at least one opening allowing for a purging gas to flow through the bores (3.7) and the opening, wherein the core part (3.5) is at least partially arranged in an external sheath (3.3) in such a manner that the purging fluid is able to flow from the bottom of the core part (3.5) and the outside of the core part (3.5) to an exit chamber (3.10) of the measuring insert, characterized in that the exit chamber (3.10) of the measuring insert is a hollow space inside the measuring insert which communicates with the outside of the measuring insert by openings in a drilled tube (3.2) supporting the external sheath (3.3).
A method of operating a terminal in a wireless communication system, the method comprising: acquiring a maximum channel occupancy time, MCOT, of the terminal within an unlicensed band; determining a time interval which a base station, BS, can use for downlink signal transmission in the maximum channel occupancy time; transmitting the MCOT and time information related to the time interval to the BS; and receiving a downlink signal from the BS during the time interval in the MCOT, wherein the time information includes information on a gap interval for channel access of the BS before a time point at which the BS initiates the downlink signal, wherein the time information includes a gap interval indicator, a slot indicator, and a transmission time indicator. acquiring a maximum channel occupancy time, MCOT, of the terminal within an unlicensed band; determining a time interval which a base station, BS, can use for downlink signal transmission in the maximum channel occupancy time; transmitting the MCOT and time information related to the time interval to the BS; and receiving a downlink signal from the BS during the time interval in the MCOT, wherein the time information includes information on a gap interval for channel access of the BS before a time point at which the BS initiates the downlink signal, wherein the time information includes a gap interval indicator, a slot indicator, and a transmission time indicator.