mhurhangee/ep-ind-claims huggingface dataset:
A mobile device comprising: a housing; an antenna disposed in the housing; and a hybrid keypad apparatus positioned in the housing, at least a portion of the keypad apparatus overlapping the antenna, the hybrid keypad apparatus comprising: a dome-switch assembly having: a first plurality of domes (502, 602; 902, 906) composed of a first material, the first plurality of domes positioned outside an antenna region of a mobile device; a second plurality of domes (504, 604; 904, 908) composed of a second material different from the first material, the second plurality of domes including minimal amounts of conductive material, the second plurality of domes overlapping the antenna region of the mobile device; and a carrier (410; 1008, 1012, 910) to couple the first and second plurality of domes. a housing; an antenna disposed in the housing; and a hybrid keypad apparatus positioned in the housing, at least a portion of the keypad apparatus overlapping the antenna, the hybrid keypad apparatus comprising: a dome-switch assembly having: a first plurality of domes (502, 602; 902, 906) composed of a first material, the first plurality of domes positioned outside an antenna region of a mobile device; a second plurality of domes (504, 604; 904, 908) composed of a second material different from the first material, the second plurality of domes including minimal amounts of conductive material, the second plurality of domes overlapping the antenna region of the mobile device; and a carrier (410; 1008, 1012, 910) to couple the first and second plurality of domes. a first plurality of domes (502, 602; 902, 906) composed of a first material, the first plurality of domes positioned outside an antenna region of a mobile device; a second plurality of domes (504, 604; 904, 908) composed of a second material different from the first material, the second plurality of domes including minimal amounts of conductive material, the second plurality of domes overlapping the antenna region of the mobile device; and a carrier (410; 1008, 1012, 910) to couple the first and second plurality of domes.
A method of operating an access node in a wireless communication system, the method comprising: transmitting, by the access node, a common reference signal, CRS, to a user agent, UA, for channel measurements; and transmitting, by the access node, a multicast/broadcast single frequency network, MBSFN, subframe configuration information to the UA to schedule the CRS signal reception by the UA, wherein the MBSFN subframe configuration information is transmitted using dedicated signaling; the dedicated signaling comprising sending the MBSFN subframe configuration associated with a RN to any UA in communication with the RN. transmitting, by the access node, a common reference signal, CRS, to a user agent, UA, for channel measurements; and transmitting, by the access node, a multicast/broadcast single frequency network, MBSFN, subframe configuration information to the UA to schedule the CRS signal reception by the UA, wherein the MBSFN subframe configuration information is transmitted using dedicated signaling; the dedicated signaling comprising sending the MBSFN subframe configuration associated with a RN to any UA in communication with the RN.
Device for cooling containers, in particular vials, comprising: at least one first cooling zone for receiving containers, with a cooling zone base and a cooling zone wall, and a cooling device for cooling air, and a first channel for directing the cooled air from the cooling device into the cooling zone, and an orifice of the first channel, which is spaced from the base of the cooling zone, wherein the cooling device comprises a condensate separator for drying the air prior to introduction into the at least one first cooling zone, and wherein the cooling device comprises at least one cooling element, in particular a Peltier element, which is in a thermally conductive connection with the condensate separator on the one hand and with the cooling zone on the other hand characterised in that the condensate separator is connected in a thermally conductive way via a heat pipe (33 1, 332) with water filling with the cooling element. at least one first cooling zone for receiving containers, with a cooling zone base and a cooling zone wall, and a cooling device for cooling air, and a first channel for directing the cooled air from the cooling device into the cooling zone, and an orifice of the first channel, which is spaced from the base of the cooling zone, wherein the cooling device comprises a condensate separator for drying the air prior to introduction into the at least one first cooling zone, and wherein the cooling device comprises at least one cooling element, in particular a Peltier element, which is in a thermally conductive connection with the condensate separator on the one hand and with the cooling zone on the other hand characterised in that the condensate separator is connected in a thermally conductive way via a heat pipe (33 1, 332) with water filling with the cooling element.
Method for transmitting an encrypted data packet from at least one first network (1 1,...,1 N) without transmission reliability to at least one second network (15 1, 15 2,..., 15 N) having a specific transmission reliability, having the following method steps: • transmitting the encrypted data packet from a network interface (2 1,..., 2 N) of the first network (1 1,.., 1 N) to a first encryption and decryption unit (6 1, 6 2,..., 6 N) associated with the second network (15 1, 15 2,..., 15 N) • decrypting the encrypted data packet in the first encryption and decryption unit (6 1, 6 2,..., 6 N) from a first encryption corresponding to the specific transmission reliability of the second network (15 1, 15 2,..., 15 N), • transmitting the decrypted data packet from the first encryption and decryption unit (6 1, 6 2,..., 6 N) to a network interface (9 1, 9 2,..., 9 N) associated with the second network (15 1, 15 2,..., 15 N), wherein manipulation-proof and correct transmission of the data packet on a logical transmission channel between the correct first encryption and decryption unit (6 1, 6 2,..., 6 N) and the correct network interface (9 1, 9 2,..., 9 N) of the second network (15 1, 15 2,..., 15 N) is achieved by virtue of a second encryption, associated with the logical transmission channel, of the data packet being effected, characterized in that detection of a manipulation of the second encryption of the data packet transmitted in the logical transmission channel is achieved by virtue of a hash function being incorporated in the second encryption, in that the data of the data packet to be transmitted on the logical transmission channel are supplied to the hash function and the result of the hash function together with the data of the data packet transmitted in the logical transmission channel is supplied to the second encryption, in that individualization of the second encryption of each individual data packet is achieved by virtue of a sequence value associated with the respective data packet being used in the second encryption of the respective data packet, and in that use of an initialization datum in the encryption method of the second encryption achieves additional individualization of the second encryption of each individual transmitted data packet. • transmitting the encrypted data packet from a network interface (2 1,..., 2 N) of the first network (1 1,.., 1 N) to a first encryption and decryption unit (6 1, 6 2,..., 6 N) associated with the second network (15 1, 15 2,..., 15 N) • decrypting the encrypted data packet in the first encryption and decryption unit (6 1, 6 2,..., 6 N) from a first encryption corresponding to the specific transmission reliability of the second network (15 1, 15 2,..., 15 N), • transmitting the decrypted data packet from the first encryption and decryption unit (6 1, 6 2,..., 6 N) to a network interface (9 1, 9 2,..., 9 N) associated with the second network (15 1, 15 2,..., 15 N),
A ferroelectric capacitor-based memory device comprising: (a) a substrate comprising a flexible polymeric substrate; (b) a bottom electrode comprising a first doped graphene layer deposited on the substrate, wherein the sheet resistance of the first doped graphene layer is less than 10 kohm/sq; (c) a ferroelectric layer deposited on the first doped graphene layer, wherein the ferroelectric layer has ferroelectric hysteresis properties; and (d) a top electrode deposited on the ferroelectric layer, wherein the top electrode comprises a second doped graphene layer, (e) wherein the bottom electrode, the ferroelectric layer, and the top electrode layer are formed on the substrate as a memory cell of the ferroelectric capacitor-based memory device. (a) a substrate comprising a flexible polymeric substrate; (b) a bottom electrode comprising a first doped graphene layer deposited on the substrate, wherein the sheet resistance of the first doped graphene layer is less than 10 kohm/sq; (c) a ferroelectric layer deposited on the first doped graphene layer, wherein the ferroelectric layer has ferroelectric hysteresis properties; and (d) a top electrode deposited on the ferroelectric layer, wherein the top electrode comprises a second doped graphene layer, (e) wherein the bottom electrode, the ferroelectric layer, and the top electrode layer are formed on the substrate as a memory cell of the ferroelectric capacitor-based memory device.
A musical device comprising: ▪ a frame comprising ▪ a plurality of receptacles for receiving three-dimensional parts each comprising a face that is capable of swapping between at least two orientations in said receptacle; each part including an indexing element of the orientation of the part among the at least two orientations (θ), ▪ a plurality of detectors, each detector being associated with a receptacle to determine the orientation (θ) of the part through detection of an indexing element in its receptacle, ▪ at least one audio system (5, 51), characterized in that, the insertion of at least two parts into their respective receptacle triggers sound diffusion by the audio system (5, 51) of at least two given music tracks (M 1, M 2) simultaneously, said given music tracks (M 1, M 2) being selected from a set of music tracks based on each of the orientations (θ) of said parts determined; the device further comprising a calculation system to ensure the synchronization of the music tracks (M 1, M 2) soundly diffused simultaneously. ▪ a frame comprising ▪ a plurality of receptacles for receiving three-dimensional parts each comprising a face that is capable of swapping between at least two orientations in said receptacle; each part including an indexing element of the orientation of the part among the at least two orientations (θ), ▪ a plurality of detectors, each detector being associated with a receptacle to determine the orientation (θ) of the part through detection of an indexing element in its receptacle, ▪ a plurality of receptacles for receiving three-dimensional parts each comprising a face that is capable of swapping between at least two orientations in said receptacle; each part including an indexing element of the orientation of the part among the at least two orientations (θ), ▪ a plurality of detectors, each detector being associated with a receptacle to determine the orientation (θ) of the part through detection of an indexing element in its receptacle, ▪ at least one audio system (5, 51), characterized in that, the insertion of at least two parts into their respective receptacle triggers sound diffusion by the audio system (5, 51) of at least two given music tracks (M 1, M 2) simultaneously, said given music tracks (M 1, M 2) being selected from a set of music tracks based on each of the orientations (θ) of said parts determined; the device further comprising a calculation system to ensure the synchronization of the music tracks (M 1, M 2) soundly diffused simultaneously.
A sensor which is attachable to a living body comprising: a sensor body configured to output a signal corresponding to biological information; and a cable configured to be connected to the sensor body and to transmit the signal, wherein the cable has a first portion having a first flexibility and a second portion having a second flexibility which is lower than the first flexibility, and the second flexibility enables the second portion to be bent and to retain a shape of the second portion in a bent state; wherein the second portion includes large-diameter parts having a first maximum diameter and a small-diameter part having a second maximum diameter which is smaller than the first maximum diameter. a sensor body configured to output a signal corresponding to biological information; and a cable configured to be connected to the sensor body and to transmit the signal, wherein the cable has a first portion having a first flexibility and a second portion having a second flexibility which is lower than the first flexibility, and the second flexibility enables the second portion to be bent and to retain a shape of the second portion in a bent state; wherein the second portion includes large-diameter parts having a first maximum diameter and a small-diameter part having a second maximum diameter which is smaller than the first maximum diameter.
A device for emptying the contents of a transfusion/infusion sac, comprising a pumpball, a manometer, a rapid action ventilation valve (5; 15), a non-return valve and a pressure bladder, in which the transfusion/infusion sac is enveloped, wherein said components may be connected to each other by means of tubes, characterised by a valve-manometer unit, comprising the manometer and the quick action ventilation valve (5; 15) integrated in a common housing and connected to each other by means of a tube line, of which the inner diameter has the same continuously uniformly sized flow cross section as tube ends (10 and 13) on the one hand of the pumpball and on the other hand of the pressure bladder, said tube ends being intended for respective connection to connector sections (9a and 9b) at both ends of the tube line, wherein a rotating cylinder is arranged as a multiple path rapid-action ventilation valve in the tube line between the pumpball connector section and the manometer, said ventilation valve, in the valve positions (I and II) for pumping or for ventilation, being embodied with the same continuously uniformly sized flow cross section or inner diameter (14 and 14b) as the tube line interconnecting the manometer and the quick-action ventilation valve (5; 15), and the non-return valve is provided in the pumpball connector section (9b; 10).
A method for separating and recovering carbon dioxide from ambient air, comprising continuous implementation of the following steps: a) contacting ambient air with an aqueous solution of at least one alkali or alkaline earth metal cation for absorbing carbon dioxide into the solution while forming a hydrogen carbonate or carbonate of the at least one metal; b) electrodialysis of the solution (109, 104) obtained thereby using a combination of bipolar ion exchange membranes and ion exchange membranes selective for mono- or polyvalent anions (A, AK) for obtaining a solution enriched in (hydrogen) carbonate ions and one depleted thereof (205; 105), wherein the solution depleted of (hydrogen) carbonate ions is recycled to step a); c) thermal desorption of the carbon dioxide from the solution enriched in (hydrogen) carbonate ions obtained in step (b) by means of steam stripping for obtaining a carbon dioxide/water vapor mixture and a solution depleted of CO 2 being recycled to step b), wherein an alkaline pH is set at the exit of the electrodialysis; and d) separating water from the carbon dioxide/water vapor mixture obtained by means of cooling to condensate the water vapor and optionally further drying the carbon dioxide. a) contacting ambient air with an aqueous solution of at least one alkali or alkaline earth metal cation for absorbing carbon dioxide into the solution while forming a hydrogen carbonate or carbonate of the at least one metal; b) electrodialysis of the solution (109, 104) obtained thereby using a combination of bipolar ion exchange membranes and ion exchange membranes selective for mono- or polyvalent anions (A, AK) for obtaining a solution enriched in (hydrogen) carbonate ions and one depleted thereof (205; 105), wherein the solution depleted of (hydrogen) carbonate ions is recycled to step a); c) thermal desorption of the carbon dioxide from the solution enriched in (hydrogen) carbonate ions obtained in step (b) by means of steam stripping for obtaining a carbon dioxide/water vapor mixture and a solution depleted of CO 2 being recycled to step b), wherein an alkaline pH is set at the exit of the electrodialysis; and d) separating water from the carbon dioxide/water vapor mixture obtained by means of cooling to condensate the water vapor and optionally further drying the carbon dioxide.
Device for diffusing volatile substances, comprising means for generating an air stream, said means for generating an air stream comprising a flexible sheet and at least one piezoelectric element, such that said piezoelectric element causes said flexible sheet to oscillate to generate the air stream, also comprising a container of volatile substances defining an evaporation surface, characterized in that: the end of said flexible sheet generating the air stream is oriented towards said evaporation surface, said evaporation surface being a wick, said evaporation surface is vertically oriented and said flexible sheet oscillates vertically, the piezoelectric element is placed at one end of the flexible sheet, so that an opposite end oscillates to generate the air stream, and the width of said end of said flexible sheet generating the air stream coincides with the diameter of said evaporation surface. the end of said flexible sheet generating the air stream is oriented towards said evaporation surface, said evaporation surface being a wick, said evaporation surface is vertically oriented and said flexible sheet oscillates vertically, the piezoelectric element is placed at one end of the flexible sheet, so that an opposite end oscillates to generate the air stream, and the width of said end of said flexible sheet generating the air stream coincides with the diameter of said evaporation surface.
A secondary heating-system-controller for use in conjunction with a primary heating-system-controller of a heat supply unit supplying a heating system, wherein the secondary heating-system-controller comprises interruption means (18, 20) for periodically deactivating and reactivating the heat supply unit supplying the heating system during an activation period of the heat supply unit determined by the primary heating-system-controller, the interruption means being for activating and deactivating the heat supply unit, and including a timer for outputting timing signals for an activation period and a deactivation period, and a user-interface which interfaces with the timer for a user to set the activation period and the deactivation period, characterized in that the interruption means (18, 20) are for temperature-independently periodically deactivating and reactivating the heat supply unit supplying the heating system during an activation period of the heat supply unit determined by the primary heating-system-controller, and in that the interruption means include a control circuit for activating and deactivating the heat supply unit, the timer being for outputting the timing signals to the control circuit, and in that the interruption means include a primary heating-system-controller input element for receiving a primary heating- x system activation signal and a primary heating-system deactivation signal from the primary heating-system-controller.
A method for predicting likelihood of response to chemotherapy of a human patient diagnosed with breast cancer comprising; determining the expression level of an RNA transcript of GBP1 in a sample comprising cancer cells obtained from said patient before chemotherapy, and normalizing the level of the GBP1 RNA transcript to obtain a normalized GBP1 expression level, wherein the normalized GBP1 expression level from the patient is associated with an increased likelihood of response to chemotherapy if the normalised GBP1 expression level from the patient is increased compared to the normalised GBP1 expression level in breast cancer patients from samples with no subsequent pathologic complete response to chemotherapy.
An engine intake system wherein a blow-by gas vent tube is connected at one end thereof to a cylinder head cover and is connected at the other end thereof to a closed breather capable of collecting and removing oil mist contained in blow-by gas, a blow-by gas return tube for returning the blow-by gas free from the oil mist collected and removed by the closed breather to an intake pipe, the blow-by gas return tube being connected at one end thereof to the closed breather and having at the other end thereof a return port connected to the intake pipe downstream of an air flow meter for measuring a flow of air flowing through the intake pipe, an oil mist collection tube for returning the oil mist collected and removed from the blow-by gas to an oil pan, the oil mist collection tube being connected to a bottom of the closed breather, whereby it comprises a controller for calculating an idling intake air quantity through an averaging process for several seconds on the basis of an air flow rate measured by said airflow meter and determining disconnection of said blow-by gas return tube in a case where a value obtained by subtracting said idling intake air quantity from a stored normal intake air quantity exceeds a threshold; characterised in that in a case where the value does not exceed said threshold, determination is made as being normal and a process is performed of storing said normal intake air flow quantity reflecting said idling intake air quantity, and subsequently, the operation of said diesel engine body is stopped and said stored normal intake air quantity is used after the next start of the diesel engine body.
A method of evaluating software operating on a computing device at a lower exception level, comprising: storing, by a component operating at a higher exception level, "HEL component", reference data in a portion of memory that is accessible to the HEL component but not to a component operating at a lower exception level, "LEL component"; identifying, by the HEL component, at least one of a current vector base address, VBA, or a control and system register, CSR, value associated with the LEL component; determining whether at least one of the current VBA, or the CSR value match the stored reference data; and performing a responsive action in response to determining that the current VBA, or CSR value do not match the stored reference data. storing, by a component operating at a higher exception level, "HEL component", reference data in a portion of memory that is accessible to the HEL component but not to a component operating at a lower exception level, "LEL component"; identifying, by the HEL component, at least one of a current vector base address, VBA, or a control and system register, CSR, value associated with the LEL component; determining whether at least one of the current VBA, or the CSR value match the stored reference data; and performing a responsive action in response to determining that the current VBA, or CSR value do not match the stored reference data.