mhurhangee/ep-ind-claims huggingface dataset:
Device for measuring NO and/or NOx of motor vehicle exhaust gases, having an exhaust gas probe which is designed in such a way that it is arranged in an exhaust line of the engine, and additionally comprising a detection device which is designed in such a way that it detects the rotational speed of a motor vehicle engine during a measuring operation in a range in which an increase in the rotational speed per unit time is greater than a predetermined threshold value S and for a predetermined time period T during an increase in rotational speed, the device also being characterized by a measuring device which is connected to the exhaust gas probe and which is set up to detect NO and/or NOx at a measuring frequency of at least ten times per second during the measuring operation. an exhaust gas probe which is designed in such a way that it is arranged in an exhaust line of the engine, and additionally comprising a detection device which is designed in such a way that it detects the rotational speed of a motor vehicle engine during a measuring operation in a range in which an increase in the rotational speed per unit time is greater than a predetermined threshold value S and for a predetermined time period T during an increase in rotational speed, the device also being characterized by a measuring device which is connected to the exhaust gas probe and which is set up to detect NO and/or NOx at a measuring frequency of at least ten times per second during the measuring operation.
A combination comprising: (i) a compound of Structure: or a pharmaceutically acceptable hydrate and/or salt thereof; and (ii) a compound of Structure: or a pharmaceutically acceptable salt or solvate thereof. (i) a compound of Structure: or a pharmaceutically acceptable hydrate and/or salt thereof; and (ii) a compound of Structure: or a pharmaceutically acceptable salt or solvate thereof.
A biopsy system, comprising: a driver assembly having an electromechanical power source with a battery and having a first housing configured to be grasped by a user, said first housing having a first cavity; and a biopsy probe assembly configured for releasable attachment to said driver assembly, said biopsy probe assembly having a frame, a biopsy probe, a transmission device and a second housing, said biopsy probe and said second housing being mounted to said frame, said second housing containing at least a portion of said transmission device with said biopsy probe being drivably coupled to said transmission device, and said transmission device being configured for releasable driven coupling to said electromechanical power source of said driver assembly, said first cavity of said driver assembly being configured for receiving said second housing of said biopsy probe assembly when said driver assembly is mounted to said biopsy probe assembly, said second housing having a first shape; the system characterized by: a charging dock having a third housing and a charging unit contained in said third housing, said charging unit having a set of electrical contacts, said third housing having a second shape substantially the same as said first shape of said second housing of said biopsy probe assembly, said third housing being received in said first cavity of said driver assembly with said electrical contacts being coupled in electrical communication with said driver assembly when said driver assembly is mounted on said charging dock for charging. a driver assembly having an electromechanical power source with a battery and having a first housing configured to be grasped by a user, said first housing having a first cavity; and a biopsy probe assembly configured for releasable attachment to said driver assembly, said biopsy probe assembly having a frame, a biopsy probe, a transmission device and a second housing, said biopsy probe and said second housing being mounted to said frame, said second housing containing at least a portion of said transmission device with said biopsy probe being drivably coupled to said transmission device, and said transmission device being configured for releasable driven coupling to said electromechanical power source of said driver assembly, said first cavity of said driver assembly being configured for receiving said second housing of said biopsy probe assembly when said driver assembly is mounted to said biopsy probe assembly, said second housing having a first shape; a charging dock having a third housing and a charging unit contained in said third housing, said charging unit having a set of electrical contacts, said third housing having a second shape substantially the same as said first shape of said second housing of said biopsy probe assembly, said third housing being received in said first cavity of said driver assembly with said electrical contacts being coupled in electrical communication with said driver assembly when said driver assembly is mounted on said charging dock for charging.
A method comprising: combining an interlayer and a carbon fiber fabric, wherein the interlayer comprises a highly oriented milled carbon fiber ply comprising a plurality of out-of-plane carbon fibers; winding the interlayer and the carbon fiber fabric around a core to form a composite fiber preform comprising a plurality of layers defining an annulus extending along a central axis; and densifying the composite fiber preform. combining an interlayer and a carbon fiber fabric, wherein the interlayer comprises a highly oriented milled carbon fiber ply comprising a plurality of out-of-plane carbon fibers; winding the interlayer and the carbon fiber fabric around a core to form a composite fiber preform comprising a plurality of layers defining an annulus extending along a central axis; and densifying the composite fiber preform.
A method for reducing interference in a device-to-device cluster operating within a Long Term Evolution, LTE, cell, said method comprising: defining a device-to-device blank sub-region; an evolved NodeB reducing transmission power of cellular transmissions or blanking out cellular transmissions within the defined device-to-device blank sub-region; defining a device-to-device region within an LTE frame structure, wherein the device-to-device region comprises a subset of available resources within the LTE frame structure; wherein the device-to-device blank sub-region is defined in the device-to-device region and comprises a subset of available resources within the device-to-device region; within the defined device-to-device blank sub-region, a plurality of user equipments, UEs (115, 116, 117; 125, 126, 127; 135, 136, 137; 145, 146,147; 152,154,156, 158) of the device-to-device cluster (110, 120, 130, 140,150) are transmitting information directly to another UE. defining a device-to-device blank sub-region; an evolved NodeB reducing transmission power of cellular transmissions or blanking out cellular transmissions within the defined device-to-device blank sub-region; defining a device-to-device region within an LTE frame structure, wherein the device-to-device region comprises a subset of available resources within the LTE frame structure; wherein the device-to-device blank sub-region is defined in the device-to-device region and comprises a subset of available resources within the device-to-device region; within the defined device-to-device blank sub-region, a plurality of user equipments, UEs (115, 116, 117; 125, 126, 127; 135, 136, 137; 145, 146,147; 152,154,156, 158) of the device-to-device cluster (110, 120, 130, 140,150) are transmitting information directly to another UE.
An ankle prosthesis comprising a talar implant, a tibial implant, and an intermediate implant designed to be interposed between said tibial implant and said talar implant, said intermediate implant being designed to be mounted to move relative to said talar implant in order to impart mobility to the ankle, said prosthesis further comprising embedded adjustment means making it possible to modify the assembly configuration of the intermediate implant relative to the tibial implant, said adjustment means being designed to alternate between a releasing state, in which they allow the intermediate implant to move relative to the tibial implant with at least first and second degrees of freedom that are distinct from each other, and a locking state, in which they inhibit said first and second degrees of freedom so as to hold the prosthesis in the chosen assembly configuration, wherein said adjustment means are placed under the control of control means, said prosthesis being characterized in that said control means are designed to be operable while the prosthesis is in the assembled state in vivo, so as to cause the adjustment means to alternate between their releasing state and their locking state, said ankle prosthesis being further characterized in that, with the prosthesis extending from the talar implant to the tibial implant along a mean extension axis (ZZ'), the first degree of freedom corresponds substantially to a movement in translation transverse to said mean extension axis (ZZ') and the second degree of freedom corresponds substantially to a movement in rotation about said mean extension axis (ZZ').
A process for producing a coated glass, the process comprising, a) providing a glass substrate, b) depositing a chemical vapour deposited coating on at least one surface of the glass substrate to produce a CVD coated glass, said CVD coating comprising: i) a CVD deposited layer of silicon oxide; and ii) a CVD deposited layer of titanium oxide; and c) sputter depositing a further coating on the surface of the CVD coated glass, wherein the further coating comprises at least three reflective metal layers. a) providing a glass substrate, b) depositing a chemical vapour deposited coating on at least one surface of the glass substrate to produce a CVD coated glass, said CVD coating comprising: i) a CVD deposited layer of silicon oxide; and ii) a CVD deposited layer of titanium oxide; and i) a CVD deposited layer of silicon oxide; and ii) a CVD deposited layer of titanium oxide; and c) sputter depositing a further coating on the surface of the CVD coated glass, wherein the further coating comprises at least three reflective metal layers.
A solenoid valve device, comprising: a pressure adjusting section for adjusting fluid pressure supplied from a fluid pressure source; a pump section for sucking and discharging working fluid in a reservoir; and characterized by comprising a single solenoid section for driving the pressure adjusting section and the pump section. a pressure adjusting section for adjusting fluid pressure supplied from a fluid pressure source; a pump section for sucking and discharging working fluid in a reservoir; and characterized by comprising a single solenoid section for driving the pressure adjusting section and the pump section.
Security device for providing a cryptographic key for a field device, characterised in that the security device is connected to at least one tamper sensor (8, 9) that is assigned to the field device and will emit a manipulation message upon detecting a physical manipulation carried out on the field device, wherein the cryptographic key is made available to the field device by the security device only if the security device does not receive a manipulation message from the tamper sensors (8, 9) assigned to the field device.
A pharmaceutical composition for use in a method of treatment, comprising an antibody against alpha amylase inhibitor CM3 or against a protein selected from the group consisting of alpha amylase inhibitor 0.19 (0.19), CM1, CM2, CMa, CMd, CM16, CMb, CMX1/CMX3, CMX2, and alpha Amylase Inhibitor 0.53 (0.53), respectively, wherein said antibody inhibits the interaction between the alpha amylase inhibitor and TLR4.
A system for asynchronous display of a frame, comprising: a computing device configured to determine changes between a current frame and a previous frame; and an asynchronous display coupled to the computing device configured to display an image; wherein the computing device is configured to send frame updates asynchronously to the asynchronous display to only update areas of a currently displayed image that have changed, wherein the computing device is configured to send the updated frames to the display asynchronously rather than at a fixed frame rate, wherein each area of a new frame that is different from a corresponding area in the displayed image is sent to the asynchronous display as a frame update along with corresponding at least one pixel address to identify at least one location of the at least one area that has changed, and wherein each area of a new frame that remains the same as the corresponding area in the displayed image is not sent to the asynchronous display. a computing device configured to determine changes between a current frame and a previous frame; and an asynchronous display coupled to the computing device configured to display an image; wherein the computing device is configured to send frame updates asynchronously to the asynchronous display to only update areas of a currently displayed image that have changed, wherein the computing device is configured to send the updated frames to the display asynchronously rather than at a fixed frame rate, wherein each area of a new frame that is different from a corresponding area in the displayed image is sent to the asynchronous display as a frame update along with corresponding at least one pixel address to identify at least one location of the at least one area that has changed, and wherein each area of a new frame that remains the same as the corresponding area in the displayed image is not sent to the asynchronous display.
A system for detecting a change in one or more environmental conditions, the system comprising: a plurality of oscillator circuits (102, 104) that are electromagnetically coupled together, wherein the coupling of the plurality of oscillator circuits generates an output signal that includes a voltage and a current and has a pattern of amplitude and frequency (200, 202, 204, 206, 208), and wherein the pattern of amplitude and frequency (200, 202, 204, 206, 208) changes as one or more values of the one or more environmental conditions change, wherein each of the plurality of oscillator circuits (102, 104) comprises at least one capacitor, at least one inductor, and at least one nonlinear resistor having multiple negative resistance regions such that the oscillator circuits (102, 104) provide multiple stable equilibriums, and wherein the oscillator circuits (102,104) are electrical circuits. a plurality of oscillator circuits (102, 104) that are electromagnetically coupled together, wherein the coupling of the plurality of oscillator circuits generates an output signal that includes a voltage and a current and has a pattern of amplitude and frequency (200, 202, 204, 206, 208), and wherein the pattern of amplitude and frequency (200, 202, 204, 206, 208) changes as one or more values of the one or more environmental conditions change, wherein each of the plurality of oscillator circuits (102, 104) comprises at least one capacitor, at least one inductor, and at least one nonlinear resistor having multiple negative resistance regions such that the oscillator circuits (102, 104) provide multiple stable equilibriums, and wherein the oscillator circuits (102,104) are electrical circuits.
A method to identify/analyze NMR chemical shift based binary fingerprints for virtual high throughput screening in drug discovery comprising: a) subjecting an in silico designed molecule to verification for bad contacts, correct valency, charge, hybridization etc; b) estimating the both carbon and proton chemical shifts based on the verification of step a) by adding the hydrogens and computing the frequency of occurrence of peaks in ppm to assign multiplicity in the fingerprints to quantify the chemical shifts and number of atoms; c) generating binary fingerprints of bit length of 1024 to accommodate the entire region of well-known proton and carbon chemical shift values to sufficiently capture the functional group variation in molecule which gets reflected in computed binary fingerprints; d) assigning each ppm block in the fingerprint 4 bits depending upon the number of peaks(H/C) corresponding to the intensity of the spectrum in that region; and e) generating the cumulative spectra followed by calculating the similarity score to determine class specific fingerprints. a) subjecting an in silico designed molecule to verification for bad contacts, correct valency, charge, hybridization etc; b) estimating the both carbon and proton chemical shifts based on the verification of step a) by adding the hydrogens and computing the frequency of occurrence of peaks in ppm to assign multiplicity in the fingerprints to quantify the chemical shifts and number of atoms; c) generating binary fingerprints of bit length of 1024 to accommodate the entire region of well-known proton and carbon chemical shift values to sufficiently capture the functional group variation in molecule which gets reflected in computed binary fingerprints; d) assigning each ppm block in the fingerprint 4 bits depending upon the number of peaks(H/C) corresponding to the intensity of the spectrum in that region; and e) generating the cumulative spectra followed by calculating the similarity score to determine class specific fingerprints.
A method performed in a security gateway for establishing an additional packet data network, PDN, connection over an untrusted access network to an additional packet data gateway, PDN-GW, in an evolved packet core network, EPC, the method comprising: - Establishing a first PDN connection over the untrusted access network comprising establishing an Internet Key Exchange Security Association, IKE SA, and a first Internet Protocol Security, IPsec, SA, with a UE and establishing a first network tunnel with a first PDN-GW; - receiving an IKE request message for establishing an additional IPSec SA, the IKE request message comprising a PDN type for the additional PDN connection and wherein the IKE request message is cryptographically protected using cryptographic algorithms and keys negotiated in the IKE SA establishment; - determining an Access Point Name, APN, for the additional PDN connection and selecting as the additional PDN-GW a second PDN-GW in the EPC for establishing an additional network tunnel associated with the additional IPSec SA; - sending an IKE response message indicating establishment of the additional PDN connection with the second PDN-GW and establishment of the additional IPSec SA, the IKE response message comprising a UE assigned address information over the additional PDN connection; - binding the additional IPSec SA to the additional network tunnel for the additional PDN connection; and - using (303, 304) an IKE Informational message to release the additional PDN connection, the IKE Informational message comprising a delete payload indicating a security parameter index corresponding to the additional IPSec SA associated with the additional PDN connection. - Establishing a first PDN connection over the untrusted access network comprising establishing an Internet Key Exchange Security Association, IKE SA, and a first Internet Protocol Security, IPsec, SA, with a UE and establishing a first network tunnel with a first PDN-GW; - receiving an IKE request message for establishing an additional IPSec SA, the IKE request message comprising a PDN type for the additional PDN connection and wherein the IKE request message is cryptographically protected using cryptographic algorithms and keys negotiated in the IKE SA establishment; - determining an Access Point Name, APN, for the additional PDN connection and selecting as the additional PDN-GW a second PDN-GW in the EPC for establishing an additional network tunnel associated with the additional IPSec SA; - sending an IKE response message indicating establishment of the additional PDN connection with the second PDN-GW and establishment of the additional IPSec SA, the IKE response message comprising a UE assigned address information over the additional PDN connection; - binding the additional IPSec SA to the additional network tunnel for the additional PDN connection; and - using (303, 304) an IKE Informational message to release the additional PDN connection, the IKE Informational message comprising a delete payload indicating a security parameter index corresponding to the additional IPSec SA associated with the additional PDN connection.
Lighting system (1, 34) comprising at least one illuminant having one or a plurality of individual light sources and two magnetically adhering electrical connections of opposite magnetic polarity, and furthermore comprising at least one plane support, having a plurality of pairs of magnetic contacts, each pair of which has a contact associated with a first group of contacts (35, 37, 39) and a contact associated with a second group of contacts (36, 38, 40), between which an electrical potential is able to be applied, wherein - the contacts (35, 37, 39) of the first group and the contacts (36, 38, 40) of the second group have an opposite magnetic polarity and are arranged next to one another on the carrier, - each of the contacts is configured as a magnetic attachment area for attaching a connection of an illuminant having a reverse magnetic polarity with respect thereto, characterized in that - the support has at least two sets of pairs of contacts provided for different types of illuminants, with differently shaped contacts between the sets, - a lateral distance between contacts of a respective pair of contacts of a common set of pairs is smaller than a distance between these contacts and identically shaped contacts of a different set of pairs, and - each set is independently controllable. - the contacts (35, 37, 39) of the first group and the contacts (36, 38, 40) of the second group have an opposite magnetic polarity and are arranged next to one another on the carrier, - each of the contacts is configured as a magnetic attachment area for attaching a connection of an illuminant having a reverse magnetic polarity with respect thereto, - the support has at least two sets of pairs of contacts provided for different types of illuminants, with differently shaped contacts between the sets, - a lateral distance between contacts of a respective pair of contacts of a common set of pairs is smaller than a distance between these contacts and identically shaped contacts of a different set of pairs, and - each set is independently controllable.
A purification column (2, 4, 6) in which fluid is purified by flow through a purifying component (8, 60a-d), the column including: an annular wall defining a bore which, in use, contains the purifying component, an inlet port to the bore comprising a first aperture through the annular wall, the inlet port being adjacent one end of the column, an outlet port from the bore comprising a second aperture through the annular wall, the outlet port being adjacent the same end of the column as the inlet port, and a flow guidance device within the bore and removably connected to the inlet and outlet ports for guiding the fluid to the purifying component from the inlet port and for guiding the fluid from the purifying component to the outlet port, the flow guidance device maintaining separation of the fluid flows to and from the purifying component; and characterised in that the annular wall is an extruded body. an annular wall defining a bore which, in use, contains the purifying component, an inlet port to the bore comprising a first aperture through the annular wall, the inlet port being adjacent one end of the column, an outlet port from the bore comprising a second aperture through the annular wall, the outlet port being adjacent the same end of the column as the inlet port, and a flow guidance device within the bore and removably connected to the inlet and outlet ports for guiding the fluid to the purifying component from the inlet port and for guiding the fluid from the purifying component to the outlet port, the flow guidance device maintaining separation of the fluid flows to and from the purifying component; and characterised in that the annular wall is an extruded body.