mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for slicing food products, in particular a high-performance slicer, having a working region which comprises a cutting region and a transport region having a product feed, wherein the product feed supplies products to be sliced to the cutting region on one track or on multiple tracks and a cutting blade moves, in particular in a rotating and/or revolving manner, in a cutting plane at the end of the cutting region, wherein a transfer device is provided by means of which the products are transferred to the product feed and which comprises a pivotable product support which, in a downwardly pivoted state, takes over the products to be sliced from a conveying device of the transport region and, in an upwardly pivoted state, forms a product support, on which the products are disposed during the feed to the cutting region, together with a front conveyor, in particular a conveyor belt or a passive sliding support, and having a contactlessly working scanning device for detecting at least some of the outer contour of the products to be sliced, characterized in that the scanning device comprises at least one compact sensor which is arranged in the working region (11, 13) for contour detection and which is arranged in a separate self-contained sensor housing and defines a scanning region for the products, which is disposed outside the sensor housing, within the working region (11, 13); and in that the compact sensor is arranged in or at the cutting region or in the region of the product feed. having a working region which comprises a cutting region and a transport region having a product feed, wherein the product feed supplies products to be sliced to the cutting region on one track or on multiple tracks and a cutting blade moves, in particular in a rotating and/or revolving manner, in a cutting plane at the end of the cutting region, wherein a transfer device is provided by means of which the products are transferred to the product feed and which comprises a pivotable product support which, in a downwardly pivoted state, takes over the products to be sliced from a conveying device of the transport region and, in an upwardly pivoted state, forms a product support, on which the products are disposed during the feed to the cutting region, together with a front conveyor, in particular a conveyor belt or a passive sliding support, and having a contactlessly working scanning device for detecting at least some of the outer contour of the products to be sliced, characterized in that the scanning device comprises at least one compact sensor which is arranged in the working region (11, 13) for contour detection and which is arranged in a separate self-contained sensor housing and defines a scanning region for the products, which is disposed outside the sensor housing, within the working region (11, 13); and in that the compact sensor is arranged in or at the cutting region or in the region of the product feed.
Screw, having a screw head, an adjoining, substantially cylindrical screw shank which merges into a tapering tip region with a tip, having a first thread turn which, starting close to or directly at the tip, extends up to the screw shank, and a second thread turn which, starting near or directly at the tip, extends over the tip region, is arranged between the thread turns of the first thread and ends at the transition between the tip region and the screw shank, wherein the pitch of the second thread turn corresponds in each case to that of the first thread turn; characterized in that the flank angle φ of the first thread in the tip region decreases from 90° +/-5° in a front section of the tip region near the tip in an adjoining transition region to a value 60° +/-5° in a rear section of the tip region. having a screw head, an adjoining, substantially cylindrical screw shank which merges into a tapering tip region with a tip, having a first thread turn which, starting close to or directly at the tip, extends up to the screw shank, and a second thread turn which, starting near or directly at the tip, extends over the tip region, is arranged between the thread turns of the first thread and ends at the transition between the tip region and the screw shank, wherein the pitch of the second thread turn corresponds in each case to that of the first thread turn; characterized in that the flank angle φ of the first thread in the tip region decreases from 90° +/-5° in a front section of the tip region near the tip in an adjoining transition region to a value 60° +/-5° in a rear section of the tip region.
A method for a user equipment, UE, of a wireless mobile communication system including a first frequency band (1404, 1405) and a second frequency band, the method comprising: receiving signaling information through a Physical Downlink Shared Channel, PDSCH, of the second frequency band, wherein the signaling information indicates that the first frequency band (1404, 1405) is a downlink frequency band having no corresponding uplink frequency band; determining that a number of first downlink channels allocated to the first frequency band as Physical Hybrid - ARQ Indicator Channels, PHICHs, is zero based on the signaling information; identifying a position of a Physical Downlink Control Channel, PDCCH, of the first frequency band based on the determining that the number of PHICHs is zero on the first frequency band; and receiving the PDCCH of the first frequency band at the identified position. receiving signaling information through a Physical Downlink Shared Channel, PDSCH, of the second frequency band, wherein the signaling information indicates that the first frequency band (1404, 1405) is a downlink frequency band having no corresponding uplink frequency band; determining that a number of first downlink channels allocated to the first frequency band as Physical Hybrid - ARQ Indicator Channels, PHICHs, is zero based on the signaling information; identifying a position of a Physical Downlink Control Channel, PDCCH, of the first frequency band based on the determining that the number of PHICHs is zero on the first frequency band; and receiving the PDCCH of the first frequency band at the identified position.
Transmission device for transmitting data between a first network and a second network, wherein the transmission device has a first network port for coupling to the first network and a second network port for coupling to the second network and also comprises: a first detection unit which is connected at the first network port and is configured to receive data transmitted from the first network via the first network port and to detect anomalies in the received data, and a second detection unit which is connected at the second network port and is configured to receive data transmitted from the second network via the second network port and to detect anomalies in the received data, and the first detection unit is configured to transmit a first detection signal at least to the second detection unit when anomalies are detected in the received data, and the second detection unit is configured to transmit a second detection signal at least to the first detection unit when anomalies are detected in the received data. a first detection unit which is connected at the first network port and is configured to receive data transmitted from the first network via the first network port and to detect anomalies in the received data, and a second detection unit which is connected at the second network port and is configured to receive data transmitted from the second network via the second network port and to detect anomalies in the received data, and the first detection unit is configured to transmit a first detection signal at least to the second detection unit when anomalies are detected in the received data, and the second detection unit is configured to transmit a second detection signal at least to the first detection unit when anomalies are detected in the received data.
A heat pump with refrigerant circuit comprising a compressor, an expansion valve, a condenser, and an evaporator, which are connected to refrigerant lines, and a refrigerant contained within the refrigerant circuit, which can be circulated in the refrigerant circuit by the compressor, and wherein the condenser and the evaporator include heat exchangers (32, 42) comprising a refrigerant side and a medium side, wherein the heat exchanger of the condenser is a plate heat exchanger and the heat exchanger of the evaporator is a plate heat exchanger or a finned tube heat exchanger, including a controller connected to the compressor and the expansion valve, characterised in that the heat exchangers (32, 42) of the condenser and/or the evaporator are designed asymmetrically between the refrigerant side and the medium side such that the volume of the refrigerant side is reduced by at least 10 % relative to the volume of the medium side, wherein the controller is configured to control the compressor and the expansion valve such that the flow velocity in the refrigerant lines, at least at an operating point, is at least 0.05 m/s but at most 3.5 m/s.
A mutant Rhodococcus rhodochrous dehalogenase having (i) either improved functional expression or binding kinetics compared to the wild-type Rhodococcus rhodochrous dehalogenase of SEQ ID NO: 1; and (ii) forming a bond with a substrate more stable than the bond formed between the substrate and the wild-type Rhodococcus rhodochrous dehalogenase of SEQ ID NO: 1; and wherein the mutant Rhodococcus rhodochrous dehalogenase has at least 80% amino acid identity to SEQ ID NO:1 and comprising an amino acid substitution at: (i) either position no. 106 or position no. 272 of SEQ ID NO:1. and (ii) position 167 of SEQ ID NO:1. (i) either position no. 106 or position no. 272 of SEQ ID NO:1. and (ii) position 167 of SEQ ID NO:1.
A method comprising: at a wireless access point device configured to serve wireless client devices in a wireless network, monitoring transmissions sent by direct clients capable of forming ad hoc networks with one or more other direct clients; storing profile data for each detected direct client, the profile data indicating device type, a location and services of the direct client; receiving from a direct client a request for information concerning one or more other direct clients; compiling a list and associated data indicating device type and services of the other direct clients based on the profile data, wherein the compiling includes selecting a subset of the other direct clients based on the location of the direct client stored in the profile data and whether the other direct clients offer a particular service desired by the direct client; and sending a response to the direct client containing information including the list of the subset of the other direct clients. at a wireless access point device configured to serve wireless client devices in a wireless network, monitoring transmissions sent by direct clients capable of forming ad hoc networks with one or more other direct clients; storing profile data for each detected direct client, the profile data indicating device type, a location and services of the direct client; receiving from a direct client a request for information concerning one or more other direct clients; compiling a list and associated data indicating device type and services of the other direct clients based on the profile data, wherein the compiling includes selecting a subset of the other direct clients based on the location of the direct client stored in the profile data and whether the other direct clients offer a particular service desired by the direct client; and sending a response to the direct client containing information including the list of the subset of the other direct clients.
Method for manufacturing a piston for an internal combustion engine with a piston upper part and a piston lower part, wherein the piston upper part has a piston bottom with a combustion cavity comprising a dome, a circumferential top land and a circumferential ring part, wherein the piston lower part has piston hubs provided with hub boreholes, which are connected to one another via running surfaces (23, 24), with the following method steps: a) manufacturing a blank (11', 111', 211') of the piston upper part by means of a forming process; b) manufacturing a blank of the piston lower part by means of a forming process or a casting process; c) connecting the blanks of piston upper part and piston lower part to a piston body by means of a welding process; d) reworking and/or finishing the piston body into a completed piston; characterised in that in step a) when manufacturing the blank (11', 111', 211') of the piston upper part the contour of the combustion cavity outside of a dome region (14', 114', 214') is completed in that excess material (25, 125, 225) is formed in the dome region (14'; 114', 214') of the combustion cavity and in that in step d) the excess material (25, 125, 225) in the dome region (14', 114', 214') is removed from the combustion cavity in such a quantity that a predetermined volume of the combustion cavity results. a) manufacturing a blank (11', 111', 211') of the piston upper part by means of a forming process; b) manufacturing a blank of the piston lower part by means of a forming process or a casting process; c) connecting the blanks of piston upper part and piston lower part to a piston body by means of a welding process; d) reworking and/or finishing the piston body into a completed piston;
A feeding system for feeding piglets, which feeding system comprises a plurality of locations for feeding said piglets, a control system (2, 3, 4) with a plurality of connection plugs arranged such that there is at least one connection plug in the vicinity of each of said locations, a plurality of water supply outlets arranged such that there is at least one water supply outlet in the vicinity of each connection plug, a plurality of feeders, each of which is connectable to a connection plug, each feeder containing a container to accommodate a quantity of feed, and a feed portioning device (10, 11, 12) which can be operated to portion out feed from the container to a feeding place so that a group of said piglets may eat feed from the feeder, wherein each feeder is also connectable to a water supply outlet from which water can be portioned out to the feeding place, and water portioning devices which can be operated to portion out water from the water supply outlets to the respective feeding places, wherein the control system is adapted such as to be able to individually control the feed portioning device for each of the plurality of feeders as well as to be able to individually control the water portioning devices, and wherein each feeder comprises an activity sensor that detects the piglets' activity with respect to eating feed from the feeder, and wherein the control system is adapted to control the feed portioning device of a feeder such as to portion out an increased feed quantity if the activity sensor of the associated feeder has registered activity beyond a predetermined threshold.
A method for quantifying the surface flatness of LIDAR three-dimensional point cloud data, comprising: generating a laser light beam from a laser; scanning the laser light beam using a scanner along a three-dimensional target surface; detecting a point cloud of reflected light from the target surface with a photodetector; converting the point cloud to coordinates along coordinate axes according to the attributes of the target surface with a principal component analysis technique in a controller; calculating a Z α value based on the coordinates and a predetermined bump tolerance, wherein the Z α value has the following relation: Z α = r ̄ local − r ̄ global − d σ r, global / N local; wherein r local is a local mean of coordinates, r global is a global mean of coordinates, σ r,global is a global standard deviation of coordinates, N local is a number of local sample events, and d is a predetermined bump tolerance; comparing the Z α value with a Z score of a test statistic to perform a null hypothesis, wherein the Z score is a value that corresponds to a confidence level; and rejecting the null hypothesis when the Z α value is greater than the Z score; producing three-dimensional measurements of the target surface based on the value, thereby quantifying surface flatness of the target surface. generating a laser light beam from a laser; scanning the laser light beam using a scanner along a three-dimensional target surface; detecting a point cloud of reflected light from the target surface with a photodetector; converting the point cloud to coordinates along coordinate axes according to the attributes of the target surface with a principal component analysis technique in a controller; calculating a Z α value based on the coordinates and a predetermined bump tolerance, wherein the Z α value has the following relation: Z α = r ̄ local − r ̄ global − d σ r, global / N local; wherein r local is a local mean of coordinates, r global is a global mean of coordinates, σ r,global is a global standard deviation of coordinates, N local is a number of local sample events, and d is a predetermined bump tolerance; comparing the Z α value with a Z score of a test statistic to perform a null hypothesis, wherein the Z score is a value that corresponds to a confidence level; and rejecting the null hypothesis when the Z α value is greater than the Z score; producing three-dimensional measurements of the target surface based on the value, thereby quantifying surface flatness of the target surface. r local is a local mean of coordinates, r global is a global mean of coordinates, σ r,global is a global standard deviation of coordinates, N local is a number of local sample events, and d is a predetermined bump tolerance; comparing the Z α value with a Z score of a test statistic to perform a null hypothesis, wherein the Z score is a value that corresponds to a confidence level; and rejecting the null hypothesis when the Z α value is greater than the Z score; producing three-dimensional measurements of the target surface based on the value, thereby quantifying surface flatness of the target surface.
Electric circuit with - two redundant master/slave memories (LMa, LSa, LMb, LSb), which each have a master memory element (LMa, LMb) and a slave memory element (LSa, LSb), - a signal input, which is connected to an input of a (LMa) first of the master memory elements (LMa, LMb) and is intended for connection to a combinational logic circuit, - an output selection element, which is connected on the input side respectively to an output of the slave memory elements (LSa, LSb), characterised in that - two intermediate selection elements (CMa, CMb), which are connected on the input side respectively to an output of both master memory elements (LMa, LMb) and on the output side to different slave memory elements (LSa, LSb), - the electric circuit has a multiplexer and an input memory element, which are connected on the input side to the signal input; - the multiplexer is connected on the input side to an output of the input memory element and on the output side to an input (LMb) of a second of the master memory elements (LMa, LMb); - a memory clock signal (CLK_S) with a common memory clock frequency can be supplied to the master slave memories (LMa, LSa, LMb, LSb) and the input memory element; and - a switching clock signal (CLK_M) with a switching clock frequency for the input-side switching of the multiplexer can be supplied to the multiplexer. - two redundant master/slave memories (LMa, LSa, LMb, LSb), which each have a master memory element (LMa, LMb) and a slave memory element (LSa, LSb), - a signal input, which is connected to an input of a (LMa) first of the master memory elements (LMa, LMb) and is intended for connection to a combinational logic circuit, - an output selection element, which is connected on the input side respectively to an output of the slave memory elements (LSa, LSb), characterised in that - two intermediate selection elements (CMa, CMb), which are connected on the input side respectively to an output of both master memory elements (LMa, LMb) and on the output side to different slave memory elements (LSa, LSb), - the electric circuit has a multiplexer and an input memory element, which are connected on the input side to the signal input; - the multiplexer is connected on the input side to an output of the input memory element and on the output side to an input (LMb) of a second of the master memory elements (LMa, LMb); - a memory clock signal (CLK_S) with a common memory clock frequency can be supplied to the master slave memories (LMa, LSa, LMb, LSb) and the input memory element; and - a switching clock signal (CLK_M) with a switching clock frequency for the input-side switching of the multiplexer can be supplied to the multiplexer.
An outlet box system for a central vacuum system, the outlet box system comprising: a casing assembly for operatively mounting onto a given support structure, the casing assembly having a substantially closed body provided with first and second ports (11,13), the first port being sealingly connectable via piping to the central vacuum system, and the second port being configured for allowing a vacuum hose of the central vacuum system to extend therethrough and out from the casing assembly; a door assembly operatively mountable onto the casing assembly in a substantially sealed manner, the door assembly being configured for allowing a user to selectively have access to an inside portion of the casing assembly; and a gap-adjustment assembly for adjusting a distance between the door and casing assemblies (5,19), in accordance with a wall thickness of a finished surface of the support structure. a casing assembly for operatively mounting onto a given support structure, the casing assembly having a substantially closed body provided with first and second ports (11,13), the first port being sealingly connectable via piping to the central vacuum system, and the second port being configured for allowing a vacuum hose of the central vacuum system to extend therethrough and out from the casing assembly; a door assembly operatively mountable onto the casing assembly in a substantially sealed manner, the door assembly being configured for allowing a user to selectively have access to an inside portion of the casing assembly; and a gap-adjustment assembly for adjusting a distance between the door and casing assemblies (5,19), in accordance with a wall thickness of a finished surface of the support structure.
A white inkjet ink, comprising: an anionic surfactant having a number average molecular weight less than 10,000; a white pigment having i) a density less than 3 g/cm 3, and ii) a constant particle size over a predetermined time period, the constant particle size ranging from 100 nm to 300 nm and the predetermined time period being at least 3 months at ambient temperature; a latex particle; and a balance of water; wherein the particle size is determined by dynamic light scattering. an anionic surfactant having a number average molecular weight less than 10,000; a white pigment having i) a density less than 3 g/cm 3, and ii) a constant particle size over a predetermined time period, the constant particle size ranging from 100 nm to 300 nm and the predetermined time period being at least 3 months at ambient temperature; a latex particle; and a balance of water; wherein the particle size is determined by dynamic light scattering.