mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting control signaling, the method comprising: determining (11, 21, 31), by a base station, a size of a first downlink control information, DCI, format associated with an uplink transmission mode; determining (12, 22, 32), by the base station, a second DCI format corresponding to a current downlink transmission mode; determining, by the base station, a size of the determined second DCI format; comparing (13, 23, 33), by the base station, the size of the first DCI format with the size of the second DCI format, wherein the first DCI format associated with the uplink transmission mode is a DCI format 4, the uplink transmission mode is transmission mode 2 which is a multi-antenna mode, and the second DCI format corresponding to the current downlink transmission mode is a DCI format 2, or a DCI format 2A, or a DCI format 2B, or a DCI format 2C; and appending (13, 23, 33), by the base station, at least one bit to the first DCI format associated with the uplink transmission mode to make the size of the first DCI format different from the size of the second DCI format, when the size of the first DCI format is same as the size of the second DCI format. determining (11, 21, 31), by a base station, a size of a first downlink control information, DCI, format associated with an uplink transmission mode; determining (12, 22, 32), by the base station, a second DCI format corresponding to a current downlink transmission mode; determining, by the base station, a size of the determined second DCI format; comparing (13, 23, 33), by the base station, the size of the first DCI format with the size of the second DCI format, wherein the first DCI format associated with the uplink transmission mode is a DCI format 4, the uplink transmission mode is transmission mode 2 which is a multi-antenna mode, and the second DCI format corresponding to the current downlink transmission mode is a DCI format 2, or a DCI format 2A, or a DCI format 2B, or a DCI format 2C; and appending (13, 23, 33), by the base station, at least one bit to the first DCI format associated with the uplink transmission mode to make the size of the first DCI format different from the size of the second DCI format, when the size of the first DCI format is same as the size of the second DCI format.
A battery-powered electronic hearing protector, comprising: a housing (113, 200) enclosing the battery and an electronics assembly, wherein the electronics assembly is powered by the battery, and wherein the electronics assembly comprises a processor controlled by updatable software; a first electrical contact that is a ground line; and a second electrical contact that is a data programming line in a first state, and that is a voltage charging line in a second state; a third electrical contact that is a clock line in a first state, and that is a charge enable line in the second state; a switch (225, 322, 332) enclosed by the housing; a filter (331, 333) connected between the third electrical contact and the switch (225, 322, 332); wherein the first, second and third electrical contacts (310, 320, 330, 212, 213, 214) are accessible from outside the housing; wherein the switch (225, 322, 332) is configured to change the second electrical contact between the first state and the second state in dependence on an input at the third electrical contact filtered by the filter; and wherein the battery-powered electronic hearing protector is further configured such that data received on the data programming line updates the software. a housing (113, 200) enclosing the battery and an electronics assembly, wherein the electronics assembly is powered by the battery, and wherein the electronics assembly comprises a processor controlled by updatable software; a first electrical contact that is a ground line; and a second electrical contact that is a data programming line in a first state, and that is a voltage charging line in a second state; a third electrical contact that is a clock line in a first state, and that is a charge enable line in the second state; a switch (225, 322, 332) enclosed by the housing; a filter (331, 333) connected between the third electrical contact and the switch (225, 322, 332); wherein the first, second and third electrical contacts (310, 320, 330, 212, 213, 214) are accessible from outside the housing; wherein the switch (225, 322, 332) is configured to change the second electrical contact between the first state and the second state in dependence on an input at the third electrical contact filtered by the filter; and wherein the battery-powered electronic hearing protector is further configured such that data received on the data programming line updates the software.
A decoy for protecting a platform against radar-based threats, the decoy comprising a launch tube and an ejectable unit ejectable from the launch tube on the platform, the ejectable unit comprising memory means having predetermined information loaded thereon relating to potential threats, the unit further comprising an antenna for receiving and transmitting RF signals; signal processing means for processing received RF signals; and comparing means for comparing the processed signals with the predetermined information and determining presence of a threat, in which the signal processing means on determining a threat transmits an altered RF signal via the antenna such that the received signal is jammed and the threat is lured away from the platform, wherein the predetermined information resides in non-volatile memory means in the launch tube, the predetermined information being uploaded to random access memory means in the ejectable unit immediately prior to ejection of the ejectable unit from the launch tube.
A method of determining bandwidth demands for a network comprising a plurality of groups (210, 215) of sub-networks (20a-d), each subnetwork comprising a plurality of server racks (30a-c), each subnetwork in a group of subnetworks comprising an aggregation switch node (AN, 25d) configured to control the flow of traffic to and from the plurality of server racks (30a-c) in the subnetwork, the aggregation switch nodes (25a-d) in the network optically coupled to one another via at least one switch controlled by a switch controller (212, 217), each group of subnetworks (20a-d) of the plurality of groups (212, 215) of subnetworks (20a-d) comprising a group controller in communication with each of the aggregation switch nodes (25a-d) in the group of subnetworks (20a-d), and the group controllers (315a-f) communicatively coupled to one another, the method comprising: at a group controller (315a-f) of a first group of subnetworks (20a-d): the group controller monitoring the aggregation switch nodes (25a-d) of each subnetwork (20a-d) in the first group for bandwidth demands that each subnetwork (20a-d) of the first group has for other subnetworks (20a-d) within the first group of subnetworks (20a-d), and for other groups of subnetworks (20a-d) in the network; and the group controller communicating the bandwidth demands for the subnetworks (20a-d) of the first group with each of the other group controllers (315a-f) in the network. the group controller monitoring the aggregation switch nodes (25a-d) of each subnetwork (20a-d) in the first group for bandwidth demands that each subnetwork (20a-d) of the first group has for other subnetworks (20a-d) within the first group of subnetworks (20a-d), and for other groups of subnetworks (20a-d) in the network; and the group controller communicating the bandwidth demands for the subnetworks (20a-d) of the first group with each of the other group controllers (315a-f) in the network.
Computer-implemented method for classifying activities of a patient on the basis of image data of the patient in a patient-supporting apparatus, including - detecting an activity of the patient on the basis of the image data; characterized by - determining a zone of interest in the image data, the activity being detected within the zone of interest; - determining a further zone which at least partially encloses the zone of interest; - determining classification information for the activity from the image data, the classification information at least comprising information as to whether the detected activity of the patient was brought about actively by the patient or passively by an external influence, the activity in the zone of interest being classified as actively brought about by the patient if no activity is detected in the further zone, and the activity in the zone of interest being classified as passively brought about externally if an activity is detected in the further zone within a time period before, or at the same time as, the activity in the zone of interest; and - providing information about the activity and the classification information. - detecting an activity of the patient on the basis of the image data; characterized by - determining a zone of interest in the image data, the activity being detected within the zone of interest; - determining a further zone which at least partially encloses the zone of interest; - determining classification information for the activity from the image data, the classification information at least comprising information as to whether the detected activity of the patient was brought about actively by the patient or passively by an external influence, the activity in the zone of interest being classified as actively brought about by the patient if no activity is detected in the further zone, and the activity in the zone of interest being classified as passively brought about externally if an activity is detected in the further zone within a time period before, or at the same time as, the activity in the zone of interest; and the activity in the zone of interest being classified as actively brought about by the patient if no activity is detected in the further zone, and the activity in the zone of interest being classified as passively brought about externally if an activity is detected in the further zone within a time period before, or at the same time as, the activity in the zone of interest; and - providing information about the activity and the classification information.
A ventilator comprising: a ventilation drive configured to drive ventilation gas from a gas source to a patient; a patient interface section configured to guide inspiratory gas from the ventilation drive to a patient connection, receive expiratory gas from the patient connection, and expel the expiratory gas out of the ventilator; and wherein the ventilation drive and patient interface section are configured to removably connect to at least one host comprising a ventilation path portion so as to divert the inspiratory gas through the ventilation path portion of the host when connected thereto; wherein the host is an anesthesia host and the ventilation path portion includes a circle breathing system and wherein when the ventilation drive and patient interface section are connected to the anesthesia host the inspiratory gas is diverted through the circle breathing system, further comprising at least one inspiratory diverter valve in the patient interface section configured to divert the inspiratory gas through the circle breathing system when the ventilation drive and the patient interface section are connected to the anesthesia host, wherein the diverter valve is configured to mechanically or electromechanically actuate upon connection of the host to the ventilation drive or the patient interface. a ventilation drive configured to drive ventilation gas from a gas source to a patient; a patient interface section configured to guide inspiratory gas from the ventilation drive to a patient connection, receive expiratory gas from the patient connection, and expel the expiratory gas out of the ventilator; and wherein the ventilation drive and patient interface section are configured to removably connect to at least one host comprising a ventilation path portion so as to divert the inspiratory gas through the ventilation path portion of the host when connected thereto; wherein the host is an anesthesia host and the ventilation path portion includes a circle breathing system and wherein when the ventilation drive and patient interface section are connected to the anesthesia host the inspiratory gas is diverted through the circle breathing system, further comprising at least one inspiratory diverter valve in the patient interface section configured to divert the inspiratory gas through the circle breathing system when the ventilation drive and the patient interface section are connected to the anesthesia host, wherein the diverter valve is configured to mechanically or electromechanically actuate upon connection of the host to the ventilation drive or the patient interface.
A process for manufacturing an ultra-high thermally conductive graphene curing bladder, comprising the following steps: pre-mixing an ultra-high thermally conductive graphene with rubber to obtain a pre-dispersed graphene master batch, performing a granulation process or a cutting process on the pre-dispersed graphene master batch to obtain a granular solid or a sheet solid, mixing the granular solid or the sheet solid in a rubber mixing mill to obtain an ultra-high thermally conductive graphene rubber compound; and extruding, by an extruding machine, the ultra-high thermally conductive graphene rubber compound into a rubber strip of a desirable size; weighing and fixed-length processing the rubber strip of the ultra-high thermally conductive graphene rubber compound to obtain a rubber blank, placing the rubber blank into a pressing type curing bladder mold, closing the pressing type curing bladder mold, pressurizing, heating and curing the rubber blank to obtain a finished product of the ultra-high thermally conductive graphene curing bladder. pre-mixing an ultra-high thermally conductive graphene with rubber to obtain a pre-dispersed graphene master batch, performing a granulation process or a cutting process on the pre-dispersed graphene master batch to obtain a granular solid or a sheet solid, mixing the granular solid or the sheet solid in a rubber mixing mill to obtain an ultra-high thermally conductive graphene rubber compound; and extruding, by an extruding machine, the ultra-high thermally conductive graphene rubber compound into a rubber strip of a desirable size; weighing and fixed-length processing the rubber strip of the ultra-high thermally conductive graphene rubber compound to obtain a rubber blank, placing the rubber blank into a pressing type curing bladder mold, closing the pressing type curing bladder mold, pressurizing, heating and curing the rubber blank to obtain a finished product of the ultra-high thermally conductive graphene curing bladder.
A secure locking system comprising: - a case with at least one transverse orifice opening onto the surface of said case, - a locking ring with a notched wall designed to be locked at one end of the case, - a spring placed in the orifice of the case, - a ball installed at least in part in the orifice of the case, above the spring, characterized in that the spring is manufactured in shape memory material that is designed to have: - an elastic condition when the environmental temperature is below or equal to a critical temperature of the shape memory material, which elastic condition allows the movement of the ball in the orifice, or - a hardened condition when the environmental temperature is above a critical temperature of the shape memory material, which hardened condition prevents the movement of the ball in the orifice. - a case with at least one transverse orifice opening onto the surface of said case, - a locking ring with a notched wall designed to be locked at one end of the case, - a spring placed in the orifice of the case, - a ball installed at least in part in the orifice of the case, above the spring, characterized in that the spring is manufactured in shape memory material that is designed to have: - an elastic condition when the environmental temperature is below or equal to a critical temperature of the shape memory material, which elastic condition allows the movement of the ball in the orifice, or - a hardened condition when the environmental temperature is above a critical temperature of the shape memory material, which hardened condition prevents the movement of the ball in the orifice. - an elastic condition when the environmental temperature is below or equal to a critical temperature of the shape memory material, which elastic condition allows the movement of the ball in the orifice, or - a hardened condition when the environmental temperature is above a critical temperature of the shape memory material, which hardened condition prevents the movement of the ball in the orifice.
A pharmaceutical formulation comprising an anti-IL-17 antibody at a concentration in the range of 80 mg/mL to 150 mg/mL, citrate buffer at a concentration of 20 mM, sodium chloride at a concentration of 200 mM, polysorbate-80 at a concentration in the range of 0.02% (w/v) to 0.03% (w/v), and pH at 5.7, wherein the anti-IL-17 antibody comprises an antibody with a light chain and a heavy chain, wherein said LC is the amino acid sequence of SEQ ID NO: 4 and said HC is the amino acid sequence of SEQ ID NO: 5.
A painted article comprising a metal, polymeric or composite substrate overcoated with a candy color paint metallic finishing system comprising: (i) a colored liquid base coating composition comprising a colored metal oxide-coated nontransparent silver dollar aluminum flake pigment, and optionally one or more additional colored pigments or dyes, dispersed in a first hardenable binder, wherein application of the base coating composition to a substrate provides a reflective colored layer that hides the substrate and has a sparkling metallic appearance; and (ii) a colored liquid intermediate coating composition comprising a colored pigment or dye dispersed in a second hardenable binder, wherein the colored liquid intermediate coating composition contains up to 2 wt.-% pigment or dye on a dry solids basis, wherein application of the intermediate coating composition to the reflective colored layer provides a colored intermediate layer that increases the color saturation of incident light reflected from the reflective colored layer; the painted article comprising: a. a substrate; b. a reflective colored base layer formed from the colored liquid base coating composition atop the substrate; c. a colored intermediate layer formed from the colored liquid intermediate coating composition atop the reflective colored base layer; and d. a clearcoat layer comprising a transparent third hardened binder atop the intermediate layer, wherein the term "colored" when used with respect to a paint means having a color other than white, gray or black with a non-zero chroma value C ∗. (i) a colored liquid base coating composition comprising a colored metal oxide-coated nontransparent silver dollar aluminum flake pigment, and optionally one or more additional colored pigments or dyes, dispersed in a first hardenable binder, wherein application of the base coating composition to a substrate provides a reflective colored layer that hides the substrate and has a sparkling metallic appearance; and (ii) a colored liquid intermediate coating composition comprising a colored pigment or dye dispersed in a second hardenable binder, wherein the colored liquid intermediate coating composition contains up to 2 wt.-% pigment or dye on a dry solids basis, wherein application of the intermediate coating composition to the reflective colored layer provides a colored intermediate layer that increases the color saturation of incident light reflected from the reflective colored layer; a. a substrate; b. a reflective colored base layer formed from the colored liquid base coating composition atop the substrate; c. a colored intermediate layer formed from the colored liquid intermediate coating composition atop the reflective colored base layer; and d. a clearcoat layer comprising a transparent third hardened binder atop the intermediate layer,
A method of determining a concentration of a constituent of a multi-constituent sample comprising: subjecting the sample to a perturbation affecting only the constituent and selected to induce a time dependent change in a wavelength dependent intensity of an electromagnetic wave after its interaction with the sample, the electromagnetic wave having wavelength components, the intensities of which change dependent on the perturbation induced time dependent change; recording a time-series of the wavelength dependent intensity of the electromagnetic wave following subjecting the sample to the perturbation; and determining the concentration of the constituent from the application of a calibration to the recorded time-series, said calibration correlating the concentration with time-series of the wavelength dependent intensity of the electromagnetic wave and being empirically derived from multivariate chemometric modelling of time-series wavelength dependent intensities of the electromagnetic wave recorded for each of a plurality of reference samples following subjecting each reference sample to the perturbation, each reference sample having a different known value of the concentration of the constituent.
A method for producing a bilayer of amphipathic molecules comprising the steps of: (i) providing a hydrophilic hydrated support in oil, wherein a first monolayer of amphipathic molecules is present on the surface of the hydrophilic hydrated support; (ii) providing a hydrophilic body in oil, wherein a second monolayer of amphipathic molecules is present on the surface of the hydrophilic body; and (iii) bringing the first monolayer and the second monolayer into contact to form a bilayer of amphipathic molecules, wherein either: (a) the oil in which the hydrophilic hydrated support is provided contains amphipathic molecules and the oil in which the hydrophilic body is provided contains amphipathic molecules; or (b) the hydrophilic hydrated support contains amphipathic molecules and the hydrophilic body contains amphipathic molecules. (i) providing a hydrophilic hydrated support in oil, wherein a first monolayer of amphipathic molecules is present on the surface of the hydrophilic hydrated support; (ii) providing a hydrophilic body in oil, wherein a second monolayer of amphipathic molecules is present on the surface of the hydrophilic body; and (iii) bringing the first monolayer and the second monolayer into contact to form a bilayer of amphipathic molecules, (a) the oil in which the hydrophilic hydrated support is provided contains amphipathic molecules and the oil in which the hydrophilic body is provided contains amphipathic molecules; or (b) the hydrophilic hydrated support contains amphipathic molecules and the hydrophilic body contains amphipathic molecules.