mhurhangee/patent-ind-claim-en huggingface dataset:
A homogenizer comprising a piston pump, a homogenizing device , and a pulsation damper configured to reduce pressure variations in a pipe system, said pulsation damper comprising a first pipe section and a second pipe section , said first pipe section being at least partly placed inside said second pipe section , such that a product flow can flow through said first pipe section and through a space formed between said first pipe section and said second pipe section , wherein the second pipe section is made of an elastic material, characterised in that the second pipe section has an elliptical cross section and is arranged to flex towards a more circular cross section with the effect that a larger volume can be held and hence give rise to improved damping efficiency.
A secure communication device ( d ) for performing non-interactive zero-knowledge authentication, the secure communication device comprising: a. a communications input and a communications output; b. a physical unclonable function (PUF)comprising a hardware-intrinsic identity unique to the device, the hardware-intrinsic identity being associated with a public key (A d ) and a sensitive value (P d priv ); and c. a logic processor connected to the communications input and communications output and to the hardware identity module; wherein the secure communication device is configured to: generate a zero-knowledge proof authentication token that incorporates information being a function of the sensitive value and of a hash of the public key, such that the authentication token enables a verifying device to authenticate the identity of the secure communications device using the public key without revealing the sensitive value to the verifying device; and send over the communications output to the verifying device a first packet containing the zero-knowledge proof authentication token. a. a communications input and a communications output; b. a physical unclonable function (PUF)comprising a hardware-intrinsic identity unique to the device, the hardware-intrinsic identity being associated with a public key (A d ) and a sensitive value (P d priv ); and c. a logic processor connected to the communications input and communications output and to the hardware identity module; wherein the secure communication device is configured to: generate a zero-knowledge proof authentication token that incorporates information being a function of the sensitive value and of a hash of the public key, such that the authentication token enables a verifying device to authenticate the identity of the secure communications device using the public key without revealing the sensitive value to the verifying device; and send over the communications output to the verifying device a first packet containing the zero-knowledge proof authentication token. generate a zero-knowledge proof authentication token that incorporates information being a function of the sensitive value and of a hash of the public key, such that the authentication token enables a verifying device to authenticate the identity of the secure communications device using the public key without revealing the sensitive value to the verifying device; and send over the communications output to the verifying device a first packet containing the zero-knowledge proof authentication token.
An electrical device comprising: a case including a first case and a second case coupled to the first case ; a first electrical part fixed to the first case ; a second electrical part fixed to the second case ; and a connecting portion configured to connect a first conductor extending from the first electrical part and a second conductor extending from the second electrical part to each other, the connecting portion being disposed on a terminal block , wherein either one of the first case and the second case includes a through hole , the connecting portion is disposed so as to be visible from the through hole as viewed from an outside of the case , and the first electrical part and the second electrical part are included in a power converter that is configured to convert power of a power source to power to drive a motor for traveling characterized in that : the first electrical part includes a power module housing a switching element included in a voltage boost converter circuit that is configured to boost the voltage of the power source, and the second electrical part includes a reactor included in the voltage boost converter circuit. a case including a first case and a second case coupled to the first case ; a first electrical part fixed to the first case ; a second electrical part fixed to the second case ; and a connecting portion configured to connect a first conductor extending from the first electrical part and a second conductor extending from the second electrical part to each other, the connecting portion being disposed on a terminal block , wherein either one of the first case and the second case includes a through hole , the connecting portion is disposed so as to be visible from the through hole as viewed from an outside of the case , and the first electrical part and the second electrical part are included in a power converter that is configured to convert power of a power source to power to drive a motor for traveling characterized in that : the first electrical part includes a power module housing a switching element included in a voltage boost converter circuit that is configured to boost the voltage of the power source, and the second electrical part includes a reactor included in the voltage boost converter circuit.
Measuring device for measuring mechanical forces and/or material elongation in a component , comprising: - A holding body with at least one sensor element ; - a first and a second cone-shaped supporting element ; - a clamping shell device consisting of at least one radially expandable first clamping shell element and a radially expandable second clamping shell element , whereby the two clamping shell elements (6a; 6b) are located adjacent to one another and spaced apart from one another by a gap and whereby each has cone-shaped surfaces (6d; 6e) on the inside which can be brought into sliding engagement with at least one of the cone-shaped supporting elements and can be expanded radially by changing the axial distance between the two supporting elements ; - whereby the holding body is located between the first and second clamping shell elements and can be connected by means of the supporting elements (4; 5); characterized by at least one blocking element which can be attached to at least one of the two supporting elements (4; 5) and whereby one section of the blocking element can be inserted into the gap between the first clamping shell element and the second clamping shell element of the clamping shell device . - A holding body with at least one sensor element ; - a first and a second cone-shaped supporting element ; - a clamping shell device consisting of at least one radially expandable first clamping shell element and a radially expandable second clamping shell element , whereby the two clamping shell elements (6a; 6b) are located adjacent to one another and spaced apart from one another by a gap and whereby each has cone-shaped surfaces (6d; 6e) on the inside which can be brought into sliding engagement with at least one of the cone-shaped supporting elements and can be expanded radially by changing the axial distance between the two supporting elements ; - whereby the holding body is located between the first and second clamping shell elements and can be connected by means of the supporting elements (4; 5);
A method of a User Equipment, in the following also referred to as UE, the method comprising: operating in a paired spectrum in a serving cell, wherein a multiple downlink bandwidth parts of the serving cell is configured and a downlink bandwidth part among the multiple downlink bandwidth parts is an active downlink bandwidth part ; and estimating or deriving a pathloss for a Physical Uplink Shared Channel, in the following also referred to as PUSCH, transmission in an uplink bandwidth part of the serving cell, wherein the pathloss for the PUSCH transmission in the uplink bandwidth part of the serving cell is estimated or derived based on a reference signal in the active downlink bandwidth part of the serving cell . operating in a paired spectrum in a serving cell, wherein a multiple downlink bandwidth parts of the serving cell is configured and a downlink bandwidth part among the multiple downlink bandwidth parts is an active downlink bandwidth part ; and estimating or deriving a pathloss for a Physical Uplink Shared Channel, in the following also referred to as PUSCH, transmission in an uplink bandwidth part of the serving cell, wherein the pathloss for the PUSCH transmission in the uplink bandwidth part of the serving cell is estimated or derived based on a reference signal in the active downlink bandwidth part of the serving cell .
An organic light emitting display device, comprising: a substrate ; light emitting devices disposed on the substrate ; an encapsulation layer structure disposed on the light emitting devices , the encapsulation layer structure including a first inorganic encapsulation layer on the light emitting devices , an organic encapsulation layer disposed on the first inorganic encapsulation layer , and a second inorganic encapsulation layer covering upper and side surfaces of the organic encapsulation layer ; at least one touch electrode , at least one routing line and at least one routing pad disposed on one of the first inorganic encapsulation layer and the organic encapsulation layer and covered by at least the second inorganic layer , the at least one routing pad connected to the at least one touch electrode by the least one routing line formed of the same material as the at least one routing pad , extending from the at least one routing pad and directly connected to the at least one touch electrode ; at least one routing pad contact hole disposed in at least the second inorganic encapsulation layer and over the at least one routing pad ; and at least one pad connection electrode disposed on the second inorganic encapsulation layer and covering upper and side surfaces thereof, the at least one pad connection electrode connected to the at least one routing pad through the at least one routing pad contact hole . a substrate ; light emitting devices disposed on the substrate ; an encapsulation layer structure disposed on the light emitting devices , the encapsulation layer structure including a first inorganic encapsulation layer on the light emitting devices , an organic encapsulation layer disposed on the first inorganic encapsulation layer , and a second inorganic encapsulation layer covering upper and side surfaces of the organic encapsulation layer ; at least one touch electrode , at least one routing line and at least one routing pad disposed on one of the first inorganic encapsulation layer and the organic encapsulation layer and covered by at least the second inorganic layer , the at least one routing pad connected to the at least one touch electrode by the least one routing line formed of the same material as the at least one routing pad , extending from the at least one routing pad and directly connected to the at least one touch electrode ; at least one routing pad contact hole disposed in at least the second inorganic encapsulation layer and over the at least one routing pad ; and at least one pad connection electrode disposed on the second inorganic encapsulation layer and covering upper and side surfaces thereof, the at least one pad connection electrode connected to the at least one routing pad through the at least one routing pad contact hole .
Process of manufacturing a distributor pipe for fluids, which comprises a main line section (HS) in which corrugated pipe sections having a corrugated wall and flat pipe sections having a flat wall are arranged, the respective wall enclosing a free flow cross section (Q) for the fluid, and wherein distributor interfaces (VS) for connecting secondary line sections (NS) are located in the main line section (HS), wherein a one-piece length area (LB) of the main line section (S) and/or a connector element is made of a thermoplastic material, and in that, in order to produce two or more distributor interfaces (VS), openings are made in the wall at two or more selected locations in the one-piece length area (LB) of the main line section (HS), after which a connector element is fitted at the selected locations in each case, or after a connector element has been fitted at the selected locations in each case, the connector element having an inner channel (K) which communicates with the free flow cross section (Q) of the main line section (HS), and the one-piece length area (LB) of the main line section (HS) in which the openings are made in the wall being produced using a corrugator, at least one corrugated pipe section and one flat pipe section being produced in this way, characterized in that at selected locations in the one-piece length area (LB), radially projecting pipe wall structures , such as domes or specific welding contours for positive substance jointing with a connector element formed as an end piece of a lateral pipe , are sequentially produced, which remain closed or at which the openings are made in the wall as required.
A method for processing audio information in an audio device comprising: receiving a playback signal comprising audio information; based on the playback signal, generating an audio output signal for communication to at least one transducer of the audio device; receiving at least one input signal indicative of ambient sound external to the audio device, wherein the at least one input signal comprises signals from multiple microphones ; determining near-field spatial statistics for the ambient sound; detecting, based on the at least one input signal and the determined near-field spatial statistics for the ambient sound, a near-field sound from a user of the audio device and a proximity sound other than near a field sound in the ambient sound; modifying a characteristic of the audio output signal in response to detection of the near-field sound and/or detection of the proximity sound; determining a characteristic of the ambient sound wherein determining the characteristic of the ambient sound comprises determining that the ambient sound includes background music and/or determining that a background noise level of acoustic noise in the ambient sound is above a threshold background noise level; and in response to said determined characteristic of the ambient sound, disabling the detection of the proximity sound to prevent false detection of proximity sound. receiving a playback signal comprising audio information; based on the playback signal, generating an audio output signal for communication to at least one transducer of the audio device; receiving at least one input signal indicative of ambient sound external to the audio device, wherein the at least one input signal comprises signals from multiple microphones ; determining near-field spatial statistics for the ambient sound; detecting, based on the at least one input signal and the determined near-field spatial statistics for the ambient sound, a near-field sound from a user of the audio device and a proximity sound other than near a field sound in the ambient sound; modifying a characteristic of the audio output signal in response to detection of the near-field sound and/or detection of the proximity sound; determining a characteristic of the ambient sound wherein determining the characteristic of the ambient sound comprises determining that the ambient sound includes background music and/or determining that a background noise level of acoustic noise in the ambient sound is above a threshold background noise level; and in response to said determined characteristic of the ambient sound, disabling the detection of the proximity sound to prevent false detection of proximity sound.
An arrangement of a wiper system on a vehicle , in particular a motor vehicle, having a device for fastening the wiper system , in particular a wiper system drive , on the vehicle with at least one fastening element and with at least one suspension strut dome , wherein the wiper system is fastened by the fastening element to a dome portion of the suspension strut dome , wherein the fastening element is only connected to the suspension strut dome and to the wiper system , characterized in that the suspension strut dome in a dome portion has an especially central dome opening , that the fastening element rests in regions on the dome portion , is arranged in regions in the dome opening and has at least one latching element , which engages the dome portion behind for locking the fastening element on the suspension strut dome through the dome opening .
A manufacturing method for a cooler , the manufacturing method comprising brazing: a cooling plate made of an aluminum alloy containing 0.35 mass% to 0.9 mass% of Mg and 0.2 mass% to 0.9 mass% of Si, which comprises a plurality of refrigerant flow passages along a longitudinal direction, and which is formed into a substantially flat rectangular shape in cross section with a flat upper part and a flat lower part facing each other; a first refrigerant introduction member and a second refrigerant introduction member each made of an aluminum alloy, which are connected to end portions of the cooling plate in the longitudinal direction; and a refrigerant supply pipe and a refrigerant discharge pipe each made of an aluminum alloy, which are connected to a refrigerant supply port and a refrigerant discharge port , respectively, the refrigerant supply port and the refrigerant discharge port being arranged in one of the first refrigerant introduction member and the second refrigerant introduction member , to each other, wherein the brazing includes subjecting a connecting portion of the cooling plate , the first refrigerant introduction member and the second refrigerant introduction member , the refrigerant supply pipe , and the refrigerant discharge pipe to high-frequency brazing with an aluminum alloy brazing filler metal containing 27 mass% to 37 mass% of Cu and 5 mass% to 10 mass% of Si, with the balance being Al and inevitable impurities, and a fluoride-based flux containing 11 mass% or more of CsF as a solid content through heating with a high-frequency heating coil, wherein the brazing comprises, at a time of the high-frequency brazing, cooling a portion in a vicinity of a brazing portion by cooling means using a refrigerant for cooling. a cooling plate made of an aluminum alloy containing 0.35 mass% to 0.9 mass% of Mg and 0.2 mass% to 0.9 mass% of Si, which comprises a plurality of refrigerant flow passages along a longitudinal direction, and which is formed into a substantially flat rectangular shape in cross section with a flat upper part and a flat lower part facing each other; a first refrigerant introduction member and a second refrigerant introduction member each made of an aluminum alloy, which are connected to end portions of the cooling plate in the longitudinal direction; and a refrigerant supply pipe and a refrigerant discharge pipe each made of an aluminum alloy, which are connected to a refrigerant supply port and a refrigerant discharge port , respectively, the refrigerant supply port and the refrigerant discharge port being arranged in one of the first refrigerant introduction member and the second refrigerant introduction member , to each other,
A method to automatically identify metering constraints of one or more Intelligent Electronic Devices(121-124) (IEDs) in an electrical system, comprising: capturing at least one energy-related waveform using at least one of the lEDs in the electrical system; processing electrical measurement data from, or derived from, the at least one energy-related waveform to identify anomalous characteristics in the electrical system; in response to identifying anomalous characteristics in the electrical measurement data, building an event constraint model based on or by using the identified anomalous characteristics; analyzing the event constraint model to determine if the at least one energy-related waveform is being adequately captured by the at least one of the IEDs; and in response to determining the at least one energy-related waveform is not adequately captured, taking one or more actions to address the capturing inadequacy. capturing at least one energy-related waveform using at least one of the lEDs in the electrical system; processing electrical measurement data from, or derived from, the at least one energy-related waveform to identify anomalous characteristics in the electrical system; in response to identifying anomalous characteristics in the electrical measurement data, building an event constraint model based on or by using the identified anomalous characteristics; analyzing the event constraint model to determine if the at least one energy-related waveform is being adequately captured by the at least one of the IEDs; and in response to determining the at least one energy-related waveform is not adequately captured, taking one or more actions to address the capturing inadequacy.
A data flow manager of a network for distributing data of a data stream of a user equipment via a first communication link and via a second communication link , the first communication link connecting a home gateway to a first network access entity that provides access to a communication network for the home gateway , the second communication link connecting the user equipment to a second network access entity that provides access to the communication network for the user equipment , the user equipment being further connected to the home gateway via a third communication link , the first communication link and the third communication link forming a composite communication link, the user equipment being configured to simultaneously communicate over the composite communication link and the second communication link in a communication network, the data flow manager comprising: a network interface being configured to receive a first status signal indicating a link quality of the first communication link , a second status signal indicating a link quality of the second communication link and a third status signal indicating a link quality of the composite communication link; and a processor being configured to determine a reduction of an amount of data of the data stream communicated over the first communication link and to determine an increase of an amount of data of the data stream communicated over the second communication link , if at least one of the first status signal or the second status signal indicates a higher link quality than a link quality that is indicated by the third status signal. a network interface being configured to receive a first status signal indicating a link quality of the first communication link , a second status signal indicating a link quality of the second communication link and a third status signal indicating a link quality of the composite communication link; and a processor being configured to determine a reduction of an amount of data of the data stream communicated over the first communication link and to determine an increase of an amount of data of the data stream communicated over the second communication link , if at least one of the first status signal or the second status signal indicates a higher link quality than a link quality that is indicated by the third status signal. to determine a reduction of an amount of data of the data stream communicated over the first communication link and to determine an increase of an amount of data of the data stream communicated over the second communication link , if at least one of the first status signal or the second status signal indicates a higher link quality than a link quality that is indicated by the third status signal.