mhurhangee/patent-ind-claim-en huggingface dataset:
Monitoring and/or respiratory assistance apparatus that can be used during a cardiopulmonary resuscitation (CPR) with successive chest compressions of duration (dt) performed on the patient and with relaxations, said apparatus comprising: - means for measuring the CO 2 content in order to perform measurements of the concentration of CO 2 produced by the patient during the cardiopulmonary resuscitation (CPR), and to supply CO 2 content measurement signals to signal-processing means , - signal-processing means configured to process the CO 2 content measurement signals originating from the CO 2 content measurement means , and - at least one graphical user interface (GUI) , characterized in that the signal-processing means are configured to: a) determine at least one maximum CO 2 content value (Vmax) and at least one minimum CO 2 content value (Vmin), during at least one duration (dt) of at least one chest compression (CC), and b) calculate at least: - one airway opening index AOI such that: AOI = Vmax − Vmin / Vmax or - a mean index AOI mean on the basis of several successive opening indices AOI obtained during the durations (dt) of n successive chest compressions (with n>1), and c) transmit to said graphical user interface at least one index value AOI or at least one mean index value AOI mean , and - the graphical user interface is configured to display said at least one index value AOI or mean index value AOI mean , or a graphical representation of said at least one index value AOI or mean index value AOI mean . - means for measuring the CO 2 content in order to perform measurements of the concentration of CO 2 produced by the patient during the cardiopulmonary resuscitation (CPR), and to supply CO 2 content measurement signals to signal-processing means , - signal-processing means configured to process the CO 2 content measurement signals originating from the CO 2 content measurement means , and - at least one graphical user interface (GUI) , characterized in that the signal-processing means are configured to: a) determine at least one maximum CO 2 content value (Vmax) and at least one minimum CO 2 content value (Vmin), during at least one duration (dt) of at least one chest compression (CC), and b) calculate at least: - one airway opening index AOI such that: AOI = Vmax − Vmin / Vmax or a) determine at least one maximum CO 2 content value (Vmax) and at least one minimum CO 2 content value (Vmin), during at least one duration (dt) of at least one chest compression (CC), and b) calculate at least: - one airway opening index AOI such that: AOI = Vmax − Vmin / Vmax or - one airway opening index AOI such that: AOI = Vmax − Vmin / Vmax or - a mean index AOI mean on the basis of several successive opening indices AOI obtained during the durations (dt) of n successive chest compressions (with n>1), and c) transmit to said graphical user interface at least one index value AOI or at least one mean index value AOI mean , and - the graphical user interface is configured to display said at least one index value AOI or mean index value AOI mean , or a graphical representation of said at least one index value AOI or mean index value AOI mean .
A mounting assembly for arranging a bone conducting hearing device on a skin surface over the skull of a user, the mounting assembly comprising: - an attachment element configured to be attached to a corresponding vibrator attachment element of a vibrator assembly , the attachment element and the vibrator attachment element being adapted to operationally couple with each other; - a plate member configured to be arranged over the skin surface ; - one or more removably arranged mounting structures arranged outside the skull for attaching the mounting assembly to the skin surface over the skull , wherein the mounting structure includes a hole through which the attachment element extends, - a bracket member comprising the plate member adapted to contact with the skin surface over the skull , wherein the bracket member comprises structures adapted to be attached to the one or more mounting structures or engagement members adapted for attaching the bracket member to attachment structures and hereby arrange the mounting assembly in contact with the skin surface over the skull , and wherein the bracket member comprises a receiving structure and an insert structure , wherein the receiving structure is configured to be positioned on one side of the mounting structure with the attachment element extendable through the hole of the mounting structure, wherein the receiving structure comprises the attachment element , and the insert structure is configured to fold over to the opposite side of the mounting structure such that the attachment element is receivable in a hole comprised in the insert structure . - an attachment element configured to be attached to a corresponding vibrator attachment element of a vibrator assembly , the attachment element and the vibrator attachment element being adapted to operationally couple with each other; - a plate member configured to be arranged over the skin surface ; - one or more removably arranged mounting structures arranged outside the skull for attaching the mounting assembly to the skin surface over the skull , wherein the mounting structure includes a hole through which the attachment element extends, - a bracket member comprising the plate member adapted to contact with the skin surface over the skull , wherein the bracket member comprises structures adapted to be attached to the one or more mounting structures or engagement members adapted for attaching the bracket member to attachment structures and hereby arrange the mounting assembly in contact with the skin surface over the skull , and wherein the bracket member comprises a receiving structure and an insert structure , wherein the receiving structure is configured to be positioned on one side of the mounting structure with the attachment element extendable through the hole of the mounting structure, wherein the receiving structure comprises the attachment element , and the insert structure is configured to fold over to the opposite side of the mounting structure such that the attachment element is receivable in a hole comprised in the insert structure .
An electric power generator for marine vessels, comprising: - a containment enclosure ; - an internal combustion engine housed in the containment enclosure and including a drive shaft, rotating at a variable rotation speed, the internal combustion engine including a first cooling circuit containing a cooling liquid and at least one pipe in which the cooling fluid circulates; - an alternator housed in the containment enclosure and configured to receive mechanical power from the internal combustion engine and to convert it into electric power, the alternator including: - a stator; - a driven shaft, connected to the drive shaft to receive mechanical power; - a rotor, keyed to the driven shaft and including permanent magnets; - a second cooling circuit , including a pump and configured to circulate sea water from an inlet section to an outlet section , both formed in the containment enclosure , the second cooling circuit constituting a distinct cooling circuit with respect to the first cooling circuit ; - an electrical power converter connected to the alternator to receive an input current, having an input frequency, and to convert it into an output current, having an output frequency, so that the electrical power converter acts as a frequency variator, wherein the second cooling circuit comprises a first heat exchanger configured to allow heat exchange between the sea water and the electrical power converter . - a containment enclosure ; - an internal combustion engine housed in the containment enclosure and including a drive shaft, rotating at a variable rotation speed, the internal combustion engine including a first cooling circuit containing a cooling liquid and at least one pipe in which the cooling fluid circulates; - an alternator housed in the containment enclosure and configured to receive mechanical power from the internal combustion engine and to convert it into electric power, the alternator including: - a stator; - a driven shaft, connected to the drive shaft to receive mechanical power; - a rotor, keyed to the driven shaft and including permanent magnets; - a stator; - a driven shaft, connected to the drive shaft to receive mechanical power; - a rotor, keyed to the driven shaft and including permanent magnets; - a second cooling circuit , including a pump and configured to circulate sea water from an inlet section to an outlet section , both formed in the containment enclosure , the second cooling circuit constituting a distinct cooling circuit with respect to the first cooling circuit ; - an electrical power converter connected to the alternator to receive an input current, having an input frequency, and to convert it into an output current, having an output frequency, so that the electrical power converter acts as a frequency variator,
A device for in-line treatment of thread for use with a thread consuming device being an embroidery machine, a weaving machine, or a sewing machine, comprising: a first thread feeding unit comprising an electric motor and a thread length measurer, wherein the thread length measurer is an encoder wheel; a second thread feeding unit comprising an electric motor; a treatment unit located downstream the first thread feeding unit , said treatment unit comprises one or more discharge nozzles configured to dispensing a coating material to the thread as the thread from the first thread feeding unit passes the treatment unit ; and a fixation unit arranged in series downstream the treatment unit, wherein the fixation unit is configured to fix the applied coating material to the thread , and wherein the second thread feeding unit is located downstream the fixation unit. a first thread feeding unit comprising an electric motor and a thread length measurer, wherein the thread length measurer is an encoder wheel; a second thread feeding unit comprising an electric motor; a treatment unit located downstream the first thread feeding unit , said treatment unit comprises one or more discharge nozzles configured to dispensing a coating material to the thread as the thread from the first thread feeding unit passes the treatment unit ; and a fixation unit arranged in series downstream the treatment unit, wherein the fixation unit is configured to fix the applied coating material to the thread , and wherein the second thread feeding unit is located downstream the fixation unit.
A path and bandwidth control device of a wireless network using adaptive modulation comprising a stability level calculation means which calculates per modulation scheme a stability level indicating a probability that a bandwidth of said modulation scheme is available in a wireless link, wherein a plurality of bandwidths of said modulation schemes respectively correspond to a plurality of stability levels, and the larger the bandwidth is, the smaller the stability level is, the path and bandwidth control device being characterized by comprising: a utilization rate calculation means which calculates per range with respect to traffic amount a utilization rate indicating a ratio of time during a given period at which traffic to be accommodated is required to secure said traffic amount, wherein a plurality of utilization rates respectively correspond to a plurality of traffic amount ranges, and the higher the traffic amount range is, the smaller the utilization rate is; an allocation means which sets a bandwidth to be allocated per modulation scheme to the traffic to be accommodated in such a manner that the calculated stability level of each of the plurality of bandwidths corresponds to one of the calculated plurality of utilization rates; and a path control means which sets a path for the traffic to be accommodated in the wireless network including a communication device that performs communication over the wireless link based on the allocated plurality of bandwidths, wherein the allocation means is adapted to allocate the plurality of bandwidths to the traffic to be accommodated in such a manner that each of the stability levels has a value greater than or equal to the value of the corresponding utilization rate. a utilization rate calculation means which calculates per range with respect to traffic amount a utilization rate indicating a ratio of time during a given period at which traffic to be accommodated is required to secure said traffic amount, wherein a plurality of utilization rates respectively correspond to a plurality of traffic amount ranges, and the higher the traffic amount range is, the smaller the utilization rate is; an allocation means which sets a bandwidth to be allocated per modulation scheme to the traffic to be accommodated in such a manner that the calculated stability level of each of the plurality of bandwidths corresponds to one of the calculated plurality of utilization rates; and a path control means which sets a path for the traffic to be accommodated in the wireless network including a communication device that performs communication over the wireless link based on the allocated plurality of bandwidths, wherein the allocation means is adapted to allocate the plurality of bandwidths to the traffic to be accommodated in such a manner that each of the stability levels has a value greater than or equal to the value of the corresponding utilization rate.
Cooling circuit arrangement, comprising - a number of juxtaposed racks (30; 302, 304, 306) separating a cold aisle (34; 303, 303') from a hot aisle (36; 305, 305'), - a double bottom consisting of double bottom elements (32; 320, 322, 324, 326, 328; 402, 406) mounted on a base bottom on which double bottom the racks (30; 302, 304, 306) are mounted; - electric or electronic components to be cooled, which components are accommodated in the racks (30; 302, 304, 306); and - a cooling system comprising fans which is accommodated in the double bottom, characterized in that at least a part of the electric or electronic components is equipped with a fan , and that the cooling system, the components thereof being exclusively accommodated in the double bottom, does not include its own fans, but at least one heat exchanger which is accommodated in one or multiple double bottom elements (32; 320, 322, 324, 326, 328; 402, 406) below at least one rack (30; 302, 304, 306) or in one or multiple double bottom elements (32; 320, 322, 324, 326, 328; 402, 406) of the hot aisle . - a number of juxtaposed racks (30; 302, 304, 306) separating a cold aisle (34; 303, 303') from a hot aisle (36; 305, 305'), - a double bottom consisting of double bottom elements (32; 320, 322, 324, 326, 328; 402, 406) mounted on a base bottom on which double bottom the racks (30; 302, 304, 306) are mounted; - electric or electronic components to be cooled, which components are accommodated in the racks (30; 302, 304, 306); and - a cooling system comprising fans which is accommodated in the double bottom,
Battery with a cell assembly , wherein the cell assembly comprises a plurality of battery cells , wherein the cell assembly comprises at least two battery sections and each battery section consists of a plurality of battery cells , wherein the battery cells of the battery sections are aligned such that end terminals of the battery cells of the respective battery section lie in a common first contacting plane and that end terminals of the battery cells of the respective battery section lie in a common second contacting plane, wherein the battery sections are arranged adjacent to one another, wherein in each case a first contacting plane of a battery section faces a second contacting plane of an adjacently arranged battery section and wherein the contacting planes are aligned parallel to one another, wherein an at least partially electrically and thermally conductive connecting plate having a first side and a second side is arranged between at least two successive battery sections , which on the first side and on the second side each has at least one electrically and thermally conductive contacting section , wherein the end terminals facing the first side of this connecting plate are electrically and thermally conductively connected to the at least one contacting section of this first side and wherein the end terminals facing the second side of this connecting plate are electrically and thermally conductively connected to the at least one contacting section of this second side , wherein contacting sections of the connecting plate are connected to one another in an electrically and thermally conductive manner via the connecting plate , and wherein a battery start region and a battery end region are defined by the end terminals lying in the two outer contacting planes of the battery , wherein the battery start region and the battery end region are each connected to outer connecting plates , characterised in that a pressure plate is in each case arranged at the battery start region and the battery end region , wherein a pressure plate is in each case arranged on a side of the outer connecting plates facing away from the battery start region or rather the battery end region , and the pressure plates being designed as metal plates, wherein the pressure plates are connected to one another via tension elements and thereby press the battery cells bearing against the at least one connecting plate against the at least one connecting plate .
A method for wireless communications by a user equipment, UE, comprising: receiving a physical downlink control channel, PDCCH, message at an aggregation level, AL, wherein the AL comprises a union of control channel elements, CCEs, in a plurality of search spaces within a control resource set, CORESET; receiving radio resource control, RRC, signaling of a parameter indicating a value of the AL; determining, based on the indicated value of the AL and a predetermined rule, which of the plurality of search spaces within the CORESET to combine to determine the union of CCEs; and decoding the PDCCH message at the AL, wherein: the union of CCEs comprises a union of all CCEs in the plurality of search spaces having a same PDCCH scrambling identification, and decoding the PDCCH at the AL comprises decoding using the scrambling identification, wherein the plurality of search spaces comprise UE-specific search spaces, USSs, and a common search space, CSS. receiving a physical downlink control channel, PDCCH, message at an aggregation level, AL, wherein the AL comprises a union of control channel elements, CCEs, in a plurality of search spaces within a control resource set, CORESET; receiving radio resource control, RRC, signaling of a parameter indicating a value of the AL; determining, based on the indicated value of the AL and a predetermined rule, which of the plurality of search spaces within the CORESET to combine to determine the union of CCEs; and decoding the PDCCH message at the AL, the union of CCEs comprises a union of all CCEs in the plurality of search spaces having a same PDCCH scrambling identification, and decoding the PDCCH at the AL comprises decoding using the scrambling identification, wherein the plurality of search spaces comprise UE-specific search spaces, USSs, and a common search space, CSS.
An induction heater for a cook top comprising: - a first electrically insulating sheet ; - a second electrically insulating sheet ; - one or more inductors arranged on a same plane between the first sheet and the second sheet , each inductor comprising a single electrically conductive track defining a flat spiral coil provided with a plurality of turns ; characterized in that the thickness (t) of each inductor is comprised between 100 and 500 μm; and in that the ratio of the distance (g) between the consecutive turns of each inductor and the thickness (t) of each inductor is either smaller than or equal to 1.5. - a first electrically insulating sheet ; - a second electrically insulating sheet ; - one or more inductors arranged on a same plane between the first sheet and the second sheet , each inductor comprising a single electrically conductive track defining a flat spiral coil provided with a plurality of turns ;
A method for discriminating bulk liquid from foam and/or residuals of said bulk liquid of a sample contained in a sample vessel , comprising the following steps: providing a probe having an electric capacitance; moving said probe into said sample ; characterized in that it further comprises the steps of repeatedly performing a pair of consecutive steps of charging the probe by applying a voltage source thereto and at least partially discharging said probe by connecting the probe to an electric drain to generate a discharging current; measuring a quantity indicative of said discharging current for each pair of consecutive steps of charging and at least partially discharging said probe ; analyzing said quantity in a manner to determine an electric resistance (R mess ) of said sample via said probe ; discriminating said bulk liquid from said foam and/or said residuals of said bulk liquid based on a change of said electric resistance (R mess ) of said sample occuring when said probe contacts said bulk liquid . providing a probe having an electric capacitance; moving said probe into said sample ; characterized in that it further comprises the steps of repeatedly performing a pair of consecutive steps of charging the probe by applying a voltage source thereto and at least partially discharging said probe by connecting the probe to an electric drain to generate a discharging current; measuring a quantity indicative of said discharging current for each pair of consecutive steps of charging and at least partially discharging said probe ; analyzing said quantity in a manner to determine an electric resistance (R mess ) of said sample via said probe ; discriminating said bulk liquid from said foam and/or said residuals of said bulk liquid based on a change of said electric resistance (R mess ) of said sample occuring when said probe contacts said bulk liquid .