mhurhangee/ep-ind-claims huggingface dataset:
Storage unit (2, 3) for the cooled storage of refrigerated goods, in particular of food, with a storage chamber and at least one refrigerated goods carrier (14; 26) which can be fixed in a bearing frame, which carrier (14, 26) has at least one adjustable handle element, wherein in a first position of the handle element said element can be used as a handle for manually operating the refrigerated goods carrier (14; 26) and the refrigerated goods carrier (14; 26) can be removed from the bearing frame, the direction of removal of the refrigerated goods carrier (14; 26) is horizontal and the handle element can be moved into a second position, in which it fixes the refrigerated goods carrier (14; 26) in the bearing frame in a form-fitting manner, characterised in that the handle element and the bearing frame have two pairs of stopping faces (22; 38) oriented at right angles to the movement direction of the refrigerated goods carrier (14; 26), which stopping faces (22; 38) work together in the second position of the handle element to fix the refrigerated goods carrier (14; 26).
A decoding method of performing decompression and decoding of compressed moving picture data by motion compensated prediction, said decoding method comprising: a reference frame information decoding step of decoding information about which of at least three reference frames has been selected to be used in the motion compensated prediction, said information is assigned to each of two segments, each of the two segments consisting of one or more second blocks, the second blocks obtained by sub-dividing each of a plurality of first blocks with pixel numbers greater than pixel numbers of the second block, the plurality of first blocks obtained by dividing one frame image unit of a moving picture, wherein the reference frame information is designating a reference frame number which has been selected for each of the two segments, wherein each of the second blocks includes a plurality of pixels, wherein the first blocks are square-shaped macroblocks, wherein the two segments form a respective first block; and a compensation step of allowing selecting one reference frame for each of the two segments out of a plurality of reference frames, each of which is retained for motion compensation, based on said reference frame information, and performing the motion compensation to generate a predicted image, wherein the two segments are obtained by unevenly dividing the first block along a vertical direction or along a horizontal direction. a reference frame information decoding step of decoding information about which of at least three reference frames has been selected to be used in the motion compensated prediction, said information is assigned to each of two segments, each of the two segments consisting of one or more second blocks, the second blocks obtained by sub-dividing each of a plurality of first blocks with pixel numbers greater than pixel numbers of the second block, the plurality of first blocks obtained by dividing one frame image unit of a moving picture, wherein the reference frame information is designating a reference frame number which has been selected for each of the two segments, wherein each of the second blocks includes a plurality of pixels, wherein the first blocks are square-shaped macroblocks, wherein the two segments form a respective first block; and a compensation step of allowing selecting one reference frame for each of the two segments out of a plurality of reference frames, each of which is retained for motion compensation, based on said reference frame information, and performing the motion compensation to generate a predicted image, wherein the two segments are obtained by unevenly dividing the first block along a vertical direction or along a horizontal direction.
A light-emitting device including: a light-emitting element (77-79; 97-99; 2106-2110; 2206-2210) comprising first and second electrodes (77, 79; 97, 99; 2106, 2110; 2206, 2210) and a light-emitting layer (78; 98; 2108; 2208) between the first and second electrodes; and a field effect transistor (70, 72-75; 92-95, 97; 2101-2105; 2201-2205) for driving the light-emitting element; characterized in that the active layer (72; 92; 2101; 2201) of the field effect transistor is formed of an amorphous oxide transparent to visible light; where the amorphous oxide has an electron carrier concentration of less than 10 18 /cm 3 at a temperature of 25°C and is either an In x Sn 1-x oxide with 0.8≤x ≤1 or is InGaO 3 (ZnO) m with m being a natural number <6; where the amorphous oxide is an oxide which exhibits a halo pattern and no characteristic diffraction line in an X-ray diffraction spectrometry using small angle X-ray scattering at an incidence angle of 0.5°; and wherein the active layer of the field effect transistor exhibits an electron mobility which is higher than 1 cm 2 /V·sec. a light-emitting element (77-79; 97-99; 2106-2110; 2206-2210) comprising first and second electrodes (77, 79; 97, 99; 2106, 2110; 2206, 2210) and a light-emitting layer (78; 98; 2108; 2208) between the first and second electrodes; and a field effect transistor (70, 72-75; 92-95, 97; 2101-2105; 2201-2205) for driving the light-emitting element; characterized in that the active layer (72; 92; 2101; 2201) of the field effect transistor is formed of an amorphous oxide transparent to visible light; where the amorphous oxide has an electron carrier concentration of less than 10 18 /cm 3 at a temperature of 25°C and is either an In x Sn 1-x oxide with 0.8≤x ≤1 or is InGaO 3 (ZnO) m with m being a natural number <6; where the amorphous oxide is an oxide which exhibits a halo pattern and no characteristic diffraction line in an X-ray diffraction spectrometry using small angle X-ray scattering at an incidence angle of 0.5°; and wherein the active layer of the field effect transistor exhibits an electron mobility which is higher than 1 cm 2 /V·sec.
Animal accommodation floor comprising: - a number of floor slabs forming a manure passage, each floor slab being substantially rectangular and wherein the thickness of the floor slab decreases in lengthwise direction from a central zone toward the edges (9, 10) of the floor slab in order to form a downward incline toward both width edges (9, 10), - floor parts (3, 4) arranged on either side of the manure passage for the purpose of providing stalls and/or feeding locations for animals; characterized in that the floor slabs are placed with the longitudinal edges adjacently of each other in order to form the manure passage; and in that two manure channels are formed between the floor parts and the floor slabs on either side of the manure passage. - a number of floor slabs forming a manure passage, each floor slab being substantially rectangular and wherein the thickness of the floor slab decreases in lengthwise direction from a central zone toward the edges (9, 10) of the floor slab in order to form a downward incline toward both width edges (9, 10), - floor parts (3, 4) arranged on either side of the manure passage for the purpose of providing stalls and/or feeding locations for animals; characterized in that the floor slabs are placed with the longitudinal edges adjacently of each other in order to form the manure passage; and in that two manure channels are formed between the floor parts and the floor slabs on either side of the manure passage.
A square baler having a baling chamber, an intake duct leading into the baling chamber, a stuffer for transferring slices of crop in the intake duct into the baling chamber, and a sensor for producing a signal indicative of the frictional properties of the crop, characterised in that the sensor is provided in the baling chamber and/or the intake duct for producing an electrical output signal indicative of the frictional properties of the crop, and in that a control system is provided including means for predicting the load on the stuffer based on the signal indicative of crop friction and other measured crop parameters.
A method for producing a carbon nanomaterial for use as a catalyst, including the steps of: (a) providing a precursor which is a source of lignin, (b) heating the precursor to an activation temperature from 700°C to 800°C in the presence of an alkali solution in order to produce an activated precursor, and (c) reacting the activated precursor with a source of nitrogen atoms in order to dope the activated precursor with nitrogen atoms, wherein the precursor is heated in step (b) to the activation temperature at a rate of at least 500°C per minute. (a) providing a precursor which is a source of lignin, (b) heating the precursor to an activation temperature from 700°C to 800°C in the presence of an alkali solution in order to produce an activated precursor, and (c) reacting the activated precursor with a source of nitrogen atoms in order to dope the activated precursor with nitrogen atoms, wherein the precursor is heated in step (b) to the activation temperature at a rate of at least 500°C per minute.
A method comprising: a) providing a substrate comprising a layer of photoresist, wherein the layer of photoresist comprises a plurality of apertures; b) providing a copper electroplating bath comprising one or more sources of copper ions, one or more electrolytes; one or more accelerators; one or more suppressors; one or more first reaction products of a bisepoxide and an aromatic amino acid compound having a formula: wherein R 1 and R 2 are independently chosen from hydrogen, -NH 2 and -OH; E is nitrogen or CR 3; G is nitrogen or CR 4 and Z is nitrogen or CR 5 with the proviso that only one of E, G and Z is a nitrogen at the same time and R 3, R 4 and R 5 are independently chosen from hydrogen, -NH 2 and -OH with the proviso that at least one of R 1, R 2, R 3, R 4 and R 5 is -NH 2; and one or more second reaction products of an imidazole with an epoxide; c) immersing the substrate comprising the layer of photoresist with the plurality of apertures in the copper electroplating bath; and d) electroplating a plurality of copper photoresist defined megafeatures in the plurality of apertures, the plurality of photoresist defined megafeatures comprise an average %TIR of -5% to +15%, wherein %TIR is determined by the following equation: % TIR = height center − height edge / height max × 100 where height center is the height of a feature as measured along its center axis, height edge is the height of the feature as measured along its edge at the highest point on the edge and height max is the height from the bottom of the feature to its highest point on its top. a) providing a substrate comprising a layer of photoresist, wherein the layer of photoresist comprises a plurality of apertures; b) providing a copper electroplating bath comprising one or more sources of copper ions, one or more electrolytes; one or more accelerators; one or more suppressors; one or more first reaction products of a bisepoxide and an aromatic amino acid compound having a formula: wherein R 1 and R 2 are independently chosen from hydrogen, -NH 2 and -OH; E is nitrogen or CR 3; G is nitrogen or CR 4 and Z is nitrogen or CR 5 with the proviso that only one of E, G and Z is a nitrogen at the same time and R 3, R 4 and R 5 are independently chosen from hydrogen, -NH 2 and -OH with the proviso that at least one of R 1, R 2, R 3, R 4 and R 5 is -NH 2; and one or more second reaction products of an imidazole with an epoxide; c) immersing the substrate comprising the layer of photoresist with the plurality of apertures in the copper electroplating bath; and d) electroplating a plurality of copper photoresist defined megafeatures in the plurality of apertures, the plurality of photoresist defined megafeatures comprise an average %TIR of -5% to +15%, wherein %TIR is determined by the following equation: % TIR = height center − height edge / height max × 100 where height center is the height of a feature as measured along its center axis, height edge is the height of the feature as measured along its edge at the highest point on the edge and height max is the height from the bottom of the feature to its highest point on its top.
A method, performed by a network side device, for a virtual private cloud, VPC, to access a virtual private network, VPN, of a basic bearer network, comprising: receiving a VPC initial creation request sent by a user (step 02), determining according to a data center identifier carried in the VPC initial creation request and a table stored in the network side device, the table specifying a correspondence between service provider network edge routers and data center identifiers, a service provider network edge, PE, router of the basic bearer network used for access of a virtual customer network edge, VCE, device at a network side (step 102), determining an interface address for the PE router and determining an uplink port address for the VCE device from a VPN configuration resource provided by the user (step 102), and allocating an access tunnel for the VCE device to access the PE router (step 102); sending the uplink port address, the access tunnel information and a VPC configuration resource carried in the VPC initial creation request to a data center device through a VPC creation request, wherein the VPC creation request is used for instructing the data center device to create the VPC and the VCE device (step 103), configuring, at the network side device, the PE router interface address and the access tunnel to the determined PE router used for access of the VCE device, so that the VCE device accesses the PE router, thereby enabling the created VPC to access the VPN (step 104). receiving a VPC initial creation request sent by a user (step 02), determining according to a data center identifier carried in the VPC initial creation request and a table stored in the network side device, the table specifying a correspondence between service provider network edge routers and data center identifiers, a service provider network edge, PE, router of the basic bearer network used for access of a virtual customer network edge, VCE, device at a network side (step 102), determining an interface address for the PE router and determining an uplink port address for the VCE device from a VPN configuration resource provided by the user (step 102), and allocating an access tunnel for the VCE device to access the PE router (step 102); sending the uplink port address, the access tunnel information and a VPC configuration resource carried in the VPC initial creation request to a data center device through a VPC creation request, wherein the VPC creation request is used for instructing the data center device to create the VPC and the VCE device (step 103), configuring, at the network side device, the PE router interface address and the access tunnel to the determined PE router used for access of the VCE device, so that the VCE device accesses the PE router, thereby enabling the created VPC to access the VPN (step 104).
A method of controlling radio transmission in a wireless communication network, the method comprising: a radio device (10; 1200; 1300) controlling a first uplink radio transmission on a first carrier (33, 34) from an unlicensed frequency spectrum on the basis of a first access scheme, wherein the first access scheme involves that radio resources are allocated to the radio device (10; 1200; 1300) by a first type of grant received from the wireless communication system, wherein the first type of grant is valid for a limited number of subframes; the radio device (10; 1200; 1300) controlling a second uplink radio transmission on a second carrier (33, 34) from the unlicensed frequency spectrum on the basis of a second access scheme, wherein the second access scheme involves that radio resources are allocated to the radio device (10; 1200; 1300) by a second type of grant received from the wireless communication system, wherein the second type of grant is valid in a reoccurring manner in a sequence of subframes until the grant is released; and the radio device (10; 1200; 1300) coordinating the timing of the second uplink radio transmission in relation to the first uplink radio transmission. a radio device (10; 1200; 1300) controlling a first uplink radio transmission on a first carrier (33, 34) from an unlicensed frequency spectrum on the basis of a first access scheme, wherein the first access scheme involves that radio resources are allocated to the radio device (10; 1200; 1300) by a first type of grant received from the wireless communication system, wherein the first type of grant is valid for a limited number of subframes; the radio device (10; 1200; 1300) controlling a second uplink radio transmission on a second carrier (33, 34) from the unlicensed frequency spectrum on the basis of a second access scheme, wherein the second access scheme involves that radio resources are allocated to the radio device (10; 1200; 1300) by a second type of grant received from the wireless communication system, wherein the second type of grant is valid in a reoccurring manner in a sequence of subframes until the grant is released; and the radio device (10; 1200; 1300) coordinating the timing of the second uplink radio transmission in relation to the first uplink radio transmission.
A boiler unit (100, 200), the boiler unit configured to receive a solid state combined heat and power generating device (130, 230), the boiler unit comprising: an enclosure; said enclosure housing a heating device to produce heat; and further housing a control unit to independently control each of the heating device and the solid state combined heat and power generating device, characterized in that the boiler unit is operable without the solid state combined heat and power generating device being present, and in that the enclosure of the boiler unit further comprises an accessible void (130', 230') sized to receive the solid state combined heat and power generating device. an enclosure; said enclosure housing a heating device to produce heat; and further housing a control unit to independently control each of the heating device and the solid state combined heat and power generating device,
Surgical retractor for operating in openings in the body, with two mutually opposite retraction claws (1, 2, 1/2, 2/2) adjustable relative to each other and each secured on a carrier rail by means of respective carrier arms (3, 4), wherein at least one of the retraction claws (1, 2, 1/2, 2/2) is mounted on its carrier arm (3, 4) so as to be pivotable about a pivot axis (31, 98), running substantially transverse to the carrier rail and parallel to the carrier arm (3, 4), and, by means of an adjustment mechanism (42, 115), is adjustable by pivoting to different angle settings with respect to the opposite retraction claw (1, 2, 1/2, 2/2) in order to enlarge the retracted position, wherein the adjustment mechanism (42, 115) has an eccentric cam (48, 100) adjustable by means of a pivot lever (47, 101), characterized in that the eccentric cam acts directly, or via a transmission element, on a pressure surface (55, 95) of the retraction claw (1, 2, 1/2, 2/2) arranged eccentrically with respect to the pivot axis (31, 98), in such a way that a pivoting of the pivot lever (47, 101) causes a pivoting of the retraction claw (1, 2, 1/2, 2/2) from its initial position to its maximum pivot position.
An electrode contact analysis device for monitoring contact between one or more electrodes of a biofeedback monitoring device and a user, the electrode contact analysis device comprising: a body area network, BAN, communication circuit to transmit a body coupled communication, BCC, reference signal via a transmission electrode of a plurality of transmission electrodes; a communication circuit to receive biofeedback signals from the biofeedback monitoring device, wherein the biofeedback signals comprise biofeedback signals received by the electrode of the biofeedback monitoring device; a reference signal processing module to process the received biofeedback signals to produce a received BCC reference signal from the received biofeedback signals; an electrode contact determination module to determine a quality of a contact between the electrode and the user based on the received BCC reference signal; and a reference signal generation module to generate the BCC reference signal, wherein the BCC reference signal comprises a non-biological signal that includes an identifier, and wherein the identifier identifies the transmission electrode of the plurality of transmission electrodes. a body area network, BAN, communication circuit to transmit a body coupled communication, BCC, reference signal via a transmission electrode of a plurality of transmission electrodes; a communication circuit to receive biofeedback signals from the biofeedback monitoring device, wherein the biofeedback signals comprise biofeedback signals received by the electrode of the biofeedback monitoring device; a reference signal processing module to process the received biofeedback signals to produce a received BCC reference signal from the received biofeedback signals; an electrode contact determination module to determine a quality of a contact between the electrode and the user based on the received BCC reference signal; and
A method for sending Internet Protocol version 6, IPv6,data packets, comprising: obtaining a service data packet from a transfer layer; adding an IPv6 data packet header to the service data packet to form an IPv6 data packet, wherein the IPv6 data packet header carries service information about the service data packet, and wherein the service information comprises an ID of a service provider; and sending the IPv6 data packet. obtaining a service data packet from a transfer layer; adding an IPv6 data packet header to the service data packet to form an IPv6 data packet, wherein the IPv6 data packet header carries service information about the service data packet, and wherein the service information comprises an ID of a service provider; and sending the IPv6 data packet.
A spark gap device, comprising: a first electrode having a first surface; a second electrode having a second surface offset from and facing the first surface; and a discharge probe configured to emit light toward the first surface such that photons emitted by the discharge probe when the spark gap device is operated are incident on the first surface and cause electron emission from the first surface; wherein the first electrode and the second electrode are disposed in a sealed envelope, wherein the discharge probe is positioned exterior to the sealed envelope, characterized in that: the discharge probe is configured also to emit the light toward the second surface. a first electrode having a first surface; a second electrode having a second surface offset from and facing the first surface; and a discharge probe configured to emit light toward the first surface such that photons emitted by the discharge probe when the spark gap device is operated are incident on the first surface and cause electron emission from the first surface; wherein the first electrode and the second electrode are disposed in a sealed envelope, wherein the discharge probe is positioned exterior to the sealed envelope,