mhurhangee/ep-ind-claims huggingface dataset:
A method for reduced power consumption access to mobile device content, comprising: assigning an assigned ON-OFF power cycle timing of the mobile device, wherein the assigning includes associating the assigned ON-OFF power cycle timing of the mobile device with a mobile device identifier that identifies the mobile device; receiving a HyperText Transfer Protocol request from a web client for access to a content of the mobile device, the HyperText Transfer Protocol request including the mobile device identifier; obtaining, based on the mobile device identifier, an obtained ON-OFF power cycle timing of the mobile device, the obtained ON-OFF power cycle timing of the mobile device being the assigned ON-OFF power cycle timing; and controlling web-client access requested by the HyperText Transfer Protocol request to the mobile device based, at least in part, on the obtained ON-OFF power cycle timing of the mobile device, wherein receiving the HyperText Transfer Protocol request from the web client is at a web server, and wherein the method further comprises: receiving an absolute time signal, the absolute time signal enabling synchronization between the web server, the web client and the mobile device, wherein controlling web-client access includes: sending from the web server to the web client an instruction having a direct address for accessing the mobile device and an instruction for performing the accessing at a time schedule, relative to the absolute time signal, based on the obtained ON-OFF power cycle timing of the mobile device. assigning an assigned ON-OFF power cycle timing of the mobile device, wherein the assigning includes associating the assigned ON-OFF power cycle timing of the mobile device with a mobile device identifier that identifies the mobile device; receiving a HyperText Transfer Protocol request from a web client for access to a content of the mobile device, the HyperText Transfer Protocol request including the mobile device identifier; obtaining, based on the mobile device identifier, an obtained ON-OFF power cycle timing of the mobile device, the obtained ON-OFF power cycle timing of the mobile device being the assigned ON-OFF power cycle timing; and controlling web-client access requested by the HyperText Transfer Protocol request to the mobile device based, at least in part, on the obtained ON-OFF power cycle timing of the mobile device, receiving an absolute time signal, the absolute time signal enabling synchronization between the web server, the web client and the mobile device, wherein controlling web-client access includes: sending from the web server to the web client an instruction having a direct address for accessing the mobile device and an instruction for performing the accessing at a time schedule, relative to the absolute time signal, based on the obtained ON-OFF power cycle timing of the mobile device. sending from the web server to the web client an instruction having a direct address for accessing the mobile device and an instruction for performing the accessing at a time schedule, relative to the absolute time signal, based on the obtained ON-OFF power cycle timing of the mobile device.
Filter element comprising: - a hollow filter body, and - at least one closure cap which is arranged on an axial end of the filter body, - wherein the closure cap has a passage region with a first inner diameter and has an engagement region with a second inner diameter, - wherein the first inner diameter is larger than the second inner diameter, and - wherein a tool can be passed through the passage region and can be brought into engagement with the closure cap on the engagement region, wherein the closure cap has a ramp region, wherein the ramp region extends axially away from the filter body, and in the circumferential direction from the engagement region to the passage region, characterized in that the engagement region has a trough shape. - a hollow filter body, and - at least one closure cap which is arranged on an axial end of the filter body, - wherein the closure cap has a passage region with a first inner diameter and has an engagement region with a second inner diameter, - wherein the first inner diameter is larger than the second inner diameter, and - wherein a tool can be passed through the passage region and can be brought into engagement with the closure cap on the engagement region, wherein the closure cap has a ramp region, wherein the ramp region extends axially away from the filter body, and in the circumferential direction from the engagement region to the passage region, characterized in that the engagement region has a trough shape.
Method for a receiver of synchronization signals for synchronization to a secondary component carrier in a wireless communication system, said wireless communication system comprising aggregation of one primary component carrier and said secondary component carrier, the method comprising: - obtaining side information of said secondary component carrier; - utilizing said side information in the synchronization to said secondary component carrier, wherein utilizing said side information comprises determining a receiver window length, where the receiver window is being positioned in relation to synchronization obtained on the primary component carrier; - wherein said synchronization to said secondary component carrier comprises determining a symbol timing synchronization of said secondary component carrier; wherein said side information is pre-determined and known to the receiver; and wherein said side information comprises at least - a maximum timing alignment error, TAE, as defined by the LTE standard, and optionally - a maximum channel delay spread as defined by the LTE standard, wherein said maximum TAE and said maximum channel delay spread are between said primary component carrier and said secondary component carrier, respectively, wherein the length of the receiver window is set in a first step to include a number of samples corresponding to the TAE as defined by the LTE Standard; and if the receiver is unable to synchronize to the secondary component carrier within the receiver window set in the first step, the receiver window length is adaptively increased. - obtaining side information of said secondary component carrier; - utilizing said side information in the synchronization to said secondary component carrier, wherein utilizing said side information comprises determining a receiver window length, where the receiver window is being positioned in relation to synchronization obtained on the primary component carrier; - wherein said synchronization to said secondary component carrier comprises determining a symbol timing synchronization of said secondary component carrier; - a maximum timing alignment error, TAE, as defined by the LTE standard, and optionally - a maximum channel delay spread as defined by the LTE standard,
A method for decoding an optical data signal, said optical data signal being phase and amplitude modulated according to a constellation diagram with at least eight constellation points representing non-binary symbols, said method comprising the following steps: - carrying out a phase recovery of a received signal ignoring the possible occurrence of cycle slips, and - decoding said signal after phase recovery, wherein in said decoding, possible cycle slips occurring during phase recovery are modelled as virtual equivalent phase slip input to an equivalent encoder assumed by the decoding scheme, wherein said equivalent encoder operates such that for each symbol - the encoding result of the symbol with a given equivalent phase slip input, and - the encoding result of the same symbol with zero equivalent phase slip input but subjected to a true phase slip corresponding to said give phase slip is identical. - carrying out a phase recovery of a received signal ignoring the possible occurrence of cycle slips, and - decoding said signal after phase recovery, wherein in said decoding, possible cycle slips occurring during phase recovery are modelled as virtual equivalent phase slip input to an equivalent encoder assumed by the decoding scheme, wherein said equivalent encoder operates such that for each symbol - the encoding result of the symbol with a given equivalent phase slip input, and - the encoding result of the same symbol with zero equivalent phase slip input but subjected to a true phase slip corresponding to said give phase slip is identical. - the encoding result of the symbol with a given equivalent phase slip input, and - the encoding result of the same symbol with zero equivalent phase slip input but subjected to a true phase slip corresponding to said give phase slip
An apparatus for washing and grading sand comprising a split deck vibrating screen having a first deck and a second deck on respective sides thereof and a common sump, the first deck being arranged to receive a feed material, oversize material passing over the first deck of said split deck vibrating screen for collection as a first product and undersize material and water being collected in the sump of the split deck vibrating screen before being pumped to a first hydrocyclone; the second deck of the split deck vibrating screen receiving an underflow from the first hydrocyclone, oversize material passing over the second deck of the split deck vibrating screen (10 for collection as a second product; an overflow from the first hydrocyclone being passed into a settling tank, a water storage reservoir receiving water overflowing from the settling tank while sludge is collected and removed from a lower end of said settling tank, water being passed from said water storage reservoir to said first and second decks (6,8) of the split deck vibrating screen to wash and fluidise material thereon, characterised in that the split deck vibrating screen, said first hydrocyclone, said settling tank and said water storage reservoir are mounted on a common chassis, the settling tank and the water storage reservoir being arranged at substantially the same height as the split deck vibrating screen and being located adjacent the split deck vibrating screen to facilitate transfer of water from the water storage reservoir to the split deck vibrating screen.
A container handling machine for handling containers, such as bottles for example, comprising a machine protection element which shields active parts of the container handling machine against interventions from the outside, for example by operating personnel, at least during operation and which extends at least partly over a part of the periphery of the container handling machine, wherein a display is integrated into the machine protection element, wherein information, for example on the operating state of the container handling machine, can be displayed on the display, wherein the display is at least partially provided as a touch display, characiterized in that a user recognition unit is provided that is suitable to recognize the position of a user in the surroundings of the container handling machine, and that a control unit is connected to the user recognition unit and the display and the control unit controls the display on the display depending on a user's position.
A mass spectrometer or ion mobility spectrometer comprising: a first device for separating ions or molecules according to a physicochemical property; and an ion mobility separation or filter device for receiving and separating or filtering at least some of said ions, or ions derived from said molecules, according to their ion mobility; a gas supply connected to said ion mobility separation or filter device for supplying gas into said ion mobility separation or filter device; and a control system configured to adjust said gas supply so as to vary the composition of gas within the ion mobility separation or filter device dynamically based on the separation or elution time in said first device; wherein the gas composition in the ion mobility separation or filter device is controlled based on the ions or molecules eluting from the first device and passing into the ion mobility separation or filter device so that the gas in the ion mobility separation or filter device is controlled to be of a first composition whilst a first analyte ion is passing through the ion mobility separation or filter device, and the gas in the ion mobility separation or filter device is controlled to be of a second composition whilst a second, different analyte ion is passing through the ion mobility separation or filter device. a first device for separating ions or molecules according to a physicochemical property; and an ion mobility separation or filter device for receiving and separating or filtering at least some of said ions, or ions derived from said molecules, according to their ion mobility; a gas supply connected to said ion mobility separation or filter device for supplying gas into said ion mobility separation or filter device; and a control system configured to adjust said gas supply so as to vary the composition of gas within the ion mobility separation or filter device dynamically based on the separation or elution time in said first device; wherein the gas composition in the ion mobility separation or filter device is controlled based on the ions or molecules eluting from the first device and passing into the ion mobility separation or filter device so that the gas in the ion mobility separation or filter device is controlled to be of a first composition whilst a first analyte ion is passing through the ion mobility separation or filter device, and the gas in the ion mobility separation or filter device is controlled to be of a second composition whilst a second, different analyte ion is passing through the ion mobility separation or filter device.
A sealing band for a sealing jaw arrangement (100, 200), comprising a contact surface and an opposite bottom surface, a first portion adjacent to the contact surface and a second portion adjacent to the bottom surface, said portions being separated by a waist of a locally narrower cross-section, said sealing band being symmetrical along a first axis (A-A) that extends perpendicularly from a middle of the bottom surface, and characterized in that the waist between the first portion and the second portion is located closer to the contact surface than to the bottom surface and in that a relationship between the width of the waist and a maximum width of the second portion is between 0.88 and 0.92.
A processing method for binding a remote controller, comprising: acquiring, by the remote controller, a binding operation instruction; sending, by the remote controller, a binding request containing identification information of the remote controller to a remotely controlled device which the remote controller is to be bound with, such that the remotely controlled device generates a binding response message based on the binding request, the binding response message carrying authentication information for binding the remote controller; receiving, by the remote controller, the binding response message returned by the remotely controlled device; and performing, by the remote controller, authentication based on the authentication information in the binding response message, and binding, by the remote controller, with the remotely controlled device if the authentication is successful, so as to control the remotely controlled device. acquiring, by the remote controller, a binding operation instruction; sending, by the remote controller, a binding request containing identification information of the remote controller to a remotely controlled device which the remote controller is to be bound with, such that the remotely controlled device generates a binding response message based on the binding request, the binding response message carrying authentication information for binding the remote controller; receiving, by the remote controller, the binding response message returned by the remotely controlled device; and performing, by the remote controller, authentication based on the authentication information in the binding response message, and binding, by the remote controller, with the remotely controlled device if the authentication is successful, so as to control the remotely controlled device.
A control device for a vehicle drive device, a control target for the control device being the vehicle drive device including a rotating electrical machine, the control device comprising: an actual rotational speed obtaining part that obtains an actual rotational speed (Nm), the actual rotational speed (Nm) being an actual rotational speed (Nm) of the rotating electrical machine; an actual torque obtaining part that obtains actual torque (Tm), the actual torque (Tm) being actual torque (Tm) of the rotating electrical machine; and a determining part that determines a state of the rotating electrical machine, wherein the determining part determines that the state of the rotating electrical machine is a negative torque abnormality, when the actual torque (Tm) has a negative value smaller than a torque threshold value (THt) set based on a relationship between the actual rotational speed (Nm) and target torque (Tmt) of the rotating electrical machine, the control device being characterised in that the torque threshold value (THt) decreases as the actual rotational speed (Nm) increases when the actual rotational speed (Nm) is positive, and does not change depending on the actual rotational speed (Nm) when the actual rotational speed (Nm) is negative. an actual rotational speed obtaining part that obtains an actual rotational speed (Nm), the actual rotational speed (Nm) being an actual rotational speed (Nm) of the rotating electrical machine; an actual torque obtaining part that obtains actual torque (Tm), the actual torque (Tm) being actual torque (Tm) of the rotating electrical machine; and a determining part that determines a state of the rotating electrical machine, wherein the determining part determines that the state of the rotating electrical machine is a negative torque abnormality, when the actual torque (Tm) has a negative value smaller than a torque threshold value (THt) set based on a relationship between the actual rotational speed (Nm) and target torque (Tmt) of the rotating electrical machine, the control device being characterised in that the torque threshold value (THt) decreases as the actual rotational speed (Nm) increases when the actual rotational speed (Nm) is positive, and does not change depending on the actual rotational speed (Nm) when the actual rotational speed (Nm) is negative.
Polymer microparticles, the polymer being a polyurethane derived from structural units comprising poly(alkylene oxide) moieties, caprolactone moieties and urethane moieties; wherein the microparticles have a particle size of from 0.01 to 100 microns as determined by dynamic light scattering, wherein the microparticles have a dispersivity span in the range 1-3, defined and determined as indicated in the specification.
A preparation method of a vascular leakage blocker represented by formula 1 comprising the following steps, as shown in reaction formula 1 below: preparing a compound represented by formula 2 by reacting a compound represented by formula 4 with a compound represented by formula 5 (step 1); and preparing a compound represented by formula 1 by reacting the compound represented by formula 2 obtained in step 1 above with a compound represented by formula 3 in the presence of a catalyst (step 2): In reaction formula 1, R 1 is straight or branched C 1-10 alkyl. preparing a compound represented by formula 2 by reacting a compound represented by formula 4 with a compound represented by formula 5 (step 1); and preparing a compound represented by formula 1 by reacting the compound represented by formula 2 obtained in step 1 above with a compound represented by formula 3 in the presence of a catalyst (step 2): In reaction formula 1, R 1 is straight or branched C 1-10 alkyl.
Pump unit for clutch actuation, having a high-pressure port for clutch actuation, a low-pressure port for a lubricant flow, a single drive motor and a dual pump, which is driven by the drive motor and has a high-pressure outlet, which is connected to the high-pressure port by means of a high-pressure line, and a low-pressure outlet, which is connected to the low-pressure port by means of a low-pressure line, wherein a prefilling line which leads from the low-pressure line to the high-pressure line is provided, characterised by a check valve which blocks flow in a flow direction from the high-pressure line to the low-pressure line is provided in the prefilling line, wherein the drive motor is an electric motor which can be driven in two directions of rotation and comprises a control means to control the rotational speed of the drive motor in an open-loop or closed-loop manner, wherein the pump is configured such that in a normal operating state meaning when the check valve is closed and the high-pressure port is supplied with hydraulic fluid from the high-pressure outlet of the dual pump, the rotational speed of the drive motor is a rated rotational speed, while for prefilling purposes meaning when the check valve is open, before a pressure corresponding to a back pressure in the low-pressure line is reached on the high-pressure side, the rotational speed of the drive motor is temporarily increased, for example to 1.5 times the rated rotational speed, for a very short time, for example 400ms.
Elongate plastics strip, substantially comprising a rectangular base which is formed in a vertical projection, for a fence formed by creating meshes, the plastics strip comprising two long sides and two narrow sides, the plastics strip being elastically deformable, open-edged slots that oppose one another at intervals and at regular spacings (d) and that are mutually aligned relative to the longitudinal directions thereof that extend transversely to a long side being formed on the long sides, the mutually facing ends of said slots being closed such that a likewise rectangular central surface without openings remains, characterised in that the plastics strip is substantially V-shaped in a cross section which extends towards a slot.