mhurhangee/patent-ind-claim-en huggingface dataset:
Mould for production of glass bottles, comprising a body provided with an internal cavity first portion shaped according to the shape of the body of the glass bottle to be made, characterized in that in the lower part of the mould there is a first seat open both at the top, in communication with said internal cavity portion , and at the bottom, the mould further comprising an adapter , also open at the top and at the bottom, which can be inserted in the aforementioned seat and provided at the bottom with a further shaped seat intended for receiving a neck ring with relative finish thimble and plunger .
A signal processing apparatus suitable for generating a PCM signal having a predetermined sampling frequency from a digital signal delta-sigma-modulated by a 1- bit signal, referred to as DSD signal, the signal processing apparatus comprising: a storage unit that is configured to store the DSD signal; an extraction section (33; 41) that is configured to, in a case where the PCM signal having a predetermined sampling frequency is generated from the DSD signal, extract a predetermined number of samples from the DSD signal around samples at a predetermined interval determined by the predetermined sampling frequency; a filtering section (33; 42) that is configured to generate the PCM signal having the predetermined sampling frequency by filtering the extracted predetermined number of samples; and a transmission unit that is configured to transmit the DSD signal and the PCM signal to a reproduction apparatus , the DSD signal comprising front side audio data having a higher sound quality and higher data amount, and the PCM signal comprising rear side audio data having a lower sound quality and lower data amount, wherein the transmission unit is configured to also transmit a delay value of the PCM signal with respect to the DSD signal to the reproduction apparatus. a storage unit that is configured to store the DSD signal; an extraction section (33; 41) that is configured to, in a case where the PCM signal having a predetermined sampling frequency is generated from the DSD signal, extract a predetermined number of samples from the DSD signal around samples at a predetermined interval determined by the predetermined sampling frequency; a filtering section (33; 42) that is configured to generate the PCM signal having the predetermined sampling frequency by filtering the extracted predetermined number of samples; and a transmission unit that is configured to transmit the DSD signal and the PCM signal to a reproduction apparatus , the DSD signal comprising front side audio data having a higher sound quality and higher data amount, and the PCM signal comprising rear side audio data having a lower sound quality and lower data amount, wherein the transmission unit is configured to also transmit a delay value of the PCM signal with respect to the DSD signal to the reproduction apparatus.
A chromogenic absorbent material for an animal litter, comprising: an oxidizing agent responsive to peroxidatic/pseudoperoxidatic activity in an animal excretion to provide oxidizing activity; a chromogenic indicator being chromogenically responsive to the oxidizing activity of the oxidizing agent; and an absorptive material which is porous, for absorbing the animal excretion, the absorptive material comprising a water-absorbing polysaccharide, wherein the chromogenic absorbent material is a porous material having an effective porosity of about 0.5 mL/g to about 2.0 mL/g, wherein the effective porosity is measured by placing a known mass (m) of chromogenic absorbent particles into a container, covering it with a liquid, measuring the volume of liquid needed to cover the particles (Vc), removing the soaked particles from the container, measuring the liquid remaining in the container (Vr), calculating the volume of liquid absorbed in the particles (Va = Vc-Vr) and calculating the effective porosity as Va/m, wherein the chromogenic absorbent material has a free swelling capacity greater than about 900%, wherein the free swelling capacity is measured by soaking the material in water for 30 minutes, draining it for 10 minutes and weighing the material after the liquid has been absorbed, and wherein the chromogenic absorbent material is provided with pores having an equivalent diameter greater than about 20 μm or an equivalent diameter of about 20 μm to about 40 μm, preferably about 20 μm to about 30 μm, wherein the equivalent diameter is measured by measuring the pore diameters of the cross-section of a sample of the chromogenic absorbent material under a scanning electron microscope. an oxidizing agent responsive to peroxidatic/pseudoperoxidatic activity in an animal excretion to provide oxidizing activity; a chromogenic indicator being chromogenically responsive to the oxidizing activity of the oxidizing agent; and an absorptive material which is porous, for absorbing the animal excretion, the absorptive material comprising a water-absorbing polysaccharide,
An isolated anti-Clq antibody comprising a light chain comprising a light chain variable domain and a heavy chain comprising a heavy chain variable domain, wherein: (i) the light chain variable domain comprises the HVR-L1 comprising the amino acid sequence of SEQ ID NO:5, HVR-L2 comprising the amino acid sequence of SEQ ID NO:6, and HVR-L3 comprising the amino acid sequence of SEQ ID NO:7; and (ii) the heavy chain variable domain comprises the HVR-H1 comprising the amino acid sequence of SEQ ID NO:9, HVR-H2 comprising the amino acid sequence of SEQ ID NO:10, and HVR-H3 comprising the amino acid sequence of SEQ ID NO:11. (i) the light chain variable domain comprises the HVR-L1 comprising the amino acid sequence of SEQ ID NO:5, HVR-L2 comprising the amino acid sequence of SEQ ID NO:6, and HVR-L3 comprising the amino acid sequence of SEQ ID NO:7; and (ii) the heavy chain variable domain comprises the HVR-H1 comprising the amino acid sequence of SEQ ID NO:9, HVR-H2 comprising the amino acid sequence of SEQ ID NO:10, and HVR-H3 comprising the amino acid sequence of SEQ ID NO:11.
A system for incubating and hatching eggs wherein the system comprises: (i) a first zone , (ii) an egg carrier , (iii) an egg transport system , (iv) an egg transferring system and (v) a first carrier support configured in the first zone , wherein: - the first zone comprises an egg placing zone ; - the egg carrier is configured to carry the eggs during incubation and hatching; wherein the egg carrier comprises a conveyor belt , wherein the egg carrier is a linear egg carrier comprising a beginning and an end, wherein the egg carrier is not circular defining an infinite loop; - the egg transport system is configured to move in an operational mode of the system the egg carrier along a track from the first zone to a second zone ; - the egg transferring system is configured to transfer eggs from an egg support element onto the egg carrier in the egg placing zone , wherein one or more of the eggs is at least partly in direct contact with the egg carrier ; and - wherein during the operational mode, the system is configured to unroll the egg carrier from the first carrier support . - the first zone comprises an egg placing zone ; - the egg carrier is configured to carry the eggs during incubation and hatching; wherein the egg carrier comprises a conveyor belt , wherein the egg carrier is a linear egg carrier comprising a beginning and an end, wherein the egg carrier is not circular defining an infinite loop; - the egg transport system is configured to move in an operational mode of the system the egg carrier along a track from the first zone to a second zone ; - the egg transferring system is configured to transfer eggs from an egg support element onto the egg carrier in the egg placing zone , wherein one or more of the eggs is at least partly in direct contact with the egg carrier ; and - wherein during the operational mode, the system is configured to unroll the egg carrier from the first carrier support .
Method for measuring a magnetic flux density (B) of strong magnetic fields at an area to be measured on a nanoscale by detecting a quantum state of a magnetic-field-dependent photoluminescent particle, the method comprising: (a) positioning the magnetic-field-dependent photoluminescent particle in close proximity to the area to be measured; (b) performing manipulations for bringing the magnetic-field-dependent photoluminescent particle into a predetermined excitation level; (c) ramping up the magnetic flux density (B) at the area to be measured; (d) irradiating the magnetic-field-dependent photoluminescent particle with electromagnetic microwave radiation in a specific frequency range; (e) ramping down the magnetic flux density at the area to be measured; (f) detecting the quantum state of the magnetic-field-dependent photoluminescent particle, wherein steps (c) to (f) are performed in the indicated order and steps (a) and (b) are performed before step (c), and wherein, in step (f), the detected quantum state is the detected quantum state as induced during step (d). (a) positioning the magnetic-field-dependent photoluminescent particle in close proximity to the area to be measured; (b) performing manipulations for bringing the magnetic-field-dependent photoluminescent particle into a predetermined excitation level; (c) ramping up the magnetic flux density (B) at the area to be measured; (d) irradiating the magnetic-field-dependent photoluminescent particle with electromagnetic microwave radiation in a specific frequency range; (e) ramping down the magnetic flux density at the area to be measured; (f) detecting the quantum state of the magnetic-field-dependent photoluminescent particle, wherein steps (c) to (f) are performed in the indicated order and steps (a) and (b) are performed before step (c), and wherein, in step (f), the detected quantum state is the detected quantum state as induced during step (d).
A method comprising: receiving, at an electronic device comprising a processor and a memory device, a neural network model in a model format, the model format including information for a set of layers of the neural network model, each layer of the set of layers including a set of respective operations; generating, at the electronic device, neural network, NN, code from the neural network model, the NN code being in a programming language distinct from the model format, and the NN code comprising a respective memory allocation for each respective layer of the set of layers of the neural network model, wherein the generating comprises determining the respective memory allocation for each respective layer based at least in part on a resource constraint of a target device that is separate from the electronic device; compiling, at the electronic device, the NN code into a binary format , the compiling comprising pruning a set of non-used configurations of operations of the neural network model, wherein the pruning reduces the size of the NN code in the binary format by performing an operation fusion optimization in which multiple operations are combined into the same code segment or function call; and generating, at the electronic device, a package for deploying the compiled NN code on the target device for execution by a specialized processor of the target device. receiving, at an electronic device comprising a processor and a memory device, a neural network model in a model format, the model format including information for a set of layers of the neural network model, each layer of the set of layers including a set of respective operations; generating, at the electronic device, neural network, NN, code from the neural network model, the NN code being in a programming language distinct from the model format, and the NN code comprising a respective memory allocation for each respective layer of the set of layers of the neural network model, wherein the generating comprises determining the respective memory allocation for each respective layer based at least in part on a resource constraint of a target device that is separate from the electronic device; compiling, at the electronic device, the NN code into a binary format , the compiling comprising pruning a set of non-used configurations of operations of the neural network model, wherein the pruning reduces the size of the NN code in the binary format by performing an operation fusion optimization in which multiple operations are combined into the same code segment or function call; and generating, at the electronic device, a package for deploying the compiled NN code on the target device for execution by a specialized processor of the target device.
An electronic device , comprising: a housing including: a first plate forming a front surface of the housing, a second plate integrally forming a rear surface and side surface of the housing , wherein a space is enclosed between the front surface , side surface and rear surface , and wherein the second plate includes a first surface forming the side and rear surfaces of the housing , and a second surface disposed opposite to the first surface ; and a display disposed in the space and at least partially visible through the first plate , wherein at least a portion of the second surface includes a pattern having surface roughness having a height of 0.1 μm to 1 μm, and wherein the second plate includes a light transmittance rate of 70% to 100%. a housing including: a first plate forming a front surface of the housing, a second plate integrally forming a rear surface and side surface of the housing , wherein a space is enclosed between the front surface , side surface and rear surface , and wherein the second plate includes a first surface forming the side and rear surfaces of the housing , and a second surface disposed opposite to the first surface ; and a first plate forming a front surface of the housing, a second plate integrally forming a rear surface and side surface of the housing , wherein a space is enclosed between the front surface , side surface and rear surface , and wherein the second plate includes a first surface forming the side and rear surfaces of the housing , and a second surface disposed opposite to the first surface ; and wherein a space is enclosed between the front surface , side surface and rear surface , and wherein the second plate includes a first surface forming the side and rear surfaces of the housing , and a second surface disposed opposite to the first surface ; and a display disposed in the space and at least partially visible through the first plate , wherein at least a portion of the second surface includes a pattern having surface roughness having a height of 0.1 μm to 1 μm, and wherein the second plate includes a light transmittance rate of 70% to 100%.
A method of setting virtual carrier sensing data in a receiving station of a wireless network communications, the method comprising: receiving a frame transmitted by a transmitting station in the wireless network using a plurality of modulation schemes including a basic modulation scheme comprising either a binary phase shift keying, or a quadrature phase shift keying, or a 16- or a 64- quadrature amplitude modulation and orthogonal frequency division multiplexing and one or more modulation schemes including either a binary phase shift keying, or a quadrature phase shift keying, or 16- or 64- quadrature amplitude modulation, wherein the frame includes at least a first segment modulated by the basic modulation scheme and a second segment which follows the first segment, the first segment includes data for virtual carrier sensing and information indicating a data rate of the second segment; extracting the data for virtual carrier sensing from the first segment of the frame based on the basic modulation scheme after checking whether there is an error in the first modulated segment; and setting the extracted data as a parameter of a physical layer virtual carrier sensing indicator vector; and setting virtual carrier sensing using the extracted data set as the parameter of the physical layer virtual carrier sensing indicator vector, and wherein the setting the virtual carrier sensing comprises transmitting the physical layer virtual carrier sensing indicator vector to a medium access control, MAC, layer. receiving a frame transmitted by a transmitting station in the wireless network using a plurality of modulation schemes including a basic modulation scheme comprising either a binary phase shift keying, or a quadrature phase shift keying, or a 16- or a 64- quadrature amplitude modulation and orthogonal frequency division multiplexing and one or more modulation schemes including either a binary phase shift keying, or a quadrature phase shift keying, or 16- or 64- quadrature amplitude modulation, wherein the frame includes at least a first segment modulated by the basic modulation scheme and a second segment which follows the first segment, the first segment includes data for virtual carrier sensing and information indicating a data rate of the second segment; extracting the data for virtual carrier sensing from the first segment of the frame based on the basic modulation scheme after checking whether there is an error in the first modulated segment; and setting the extracted data as a parameter of a physical layer virtual carrier sensing indicator vector; and setting virtual carrier sensing using the extracted data set as the parameter of the physical layer virtual carrier sensing indicator vector, and wherein the setting the virtual carrier sensing comprises transmitting the physical layer virtual carrier sensing indicator vector to a medium access control, MAC, layer.
An aircraft flight control device comprising a control lever associated with a body carrying: • a plate connected to the body by a first pivot connection for pivoting about a first axis (X), the control lever being connected to the plate by a second pivot connection for pivoting about a second axis (Y) intersecting the first axis; • a first transmission shaft mounted to pivot relative to the body about a third axis (A) and connected to at least one first control motor outside the body; • a first connection mechanism connecting the control lever to the first transmission shaft in such a manner that pivoting the control lever about the first axis causes the first shaft to pivot about the third axis; • a second transmission shaft mounted to pivot relative to the body about a fourth axis (D) and connected to at least one second control motor outside the body; and • a second connection mechanism connecting the control lever to the second shaft in such a manner that pivoting the control lever about the second axis causes the second shaft to pivot about the fourth axis; the first shaft and the first connection mechanism being connected to each other by a pivot connection for pivoting about a fifth axis (C) that is inclined relative to the first axis and to the third axis; and the second shaft and the second connection mechanism being connected to each other about a pivot connection for pivoting about a sixth axis (F) that is inclined relative to the second axis and to the fourth axis; the device being characterized in that the plate is shaped in such a manner that, when the control lever is in a neutral position, the angle between the second axis (Y) and the sixth axis (F) is strictly greater than the complement of the angle between the fourth axis (D) and the sixth axis (F). • a plate connected to the body by a first pivot connection for pivoting about a first axis (X), the control lever being connected to the plate by a second pivot connection for pivoting about a second axis (Y) intersecting the first axis; • a first transmission shaft mounted to pivot relative to the body about a third axis (A) and connected to at least one first control motor outside the body; • a first connection mechanism connecting the control lever to the first transmission shaft in such a manner that pivoting the control lever about the first axis causes the first shaft to pivot about the third axis; • a second transmission shaft mounted to pivot relative to the body about a fourth axis (D) and connected to at least one second control motor outside the body; and • a second connection mechanism connecting the control lever to the second shaft in such a manner that pivoting the control lever about the second axis causes the second shaft to pivot about the fourth axis;
A wireless communication method comprising: determining, by a mobile station, a request to obtain random access in a wireless communication network and transmit an uplink message to a wireless access node, the uplink message comprising a first message part and a second message part, and wherein the mobile station is configured to transmit the uplink message in one of a first transmission format or a second transmission format; and determining, by the mobile station, to transmit the uplink message according to the second transmission format in response to determining that a conflict would occur, and otherwise to transmit the uplink message according to the first transmission format, characterized by wherein determining that the conflict would occur comprises determining that transmitting the uplink message according to the first transmission format will result in the second message part being transmitted on a time unit of a physical channel that is also configured as a downlink time unit. determining, by a mobile station, a request to obtain random access in a wireless communication network and transmit an uplink message to a wireless access node, the uplink message comprising a first message part and a second message part, and wherein the mobile station is configured to transmit the uplink message in one of a first transmission format or a second transmission format; and determining, by the mobile station, to transmit the uplink message according to the second transmission format in response to determining that a conflict would occur, and otherwise to transmit the uplink message according to the first transmission format, characterized by wherein determining that the conflict would occur comprises determining that transmitting the uplink message according to the first transmission format will result in the second message part being transmitted on a time unit of a physical channel that is also configured as a downlink time unit.