mhurhangee/ep-ind-claims huggingface dataset:
Window handle coupling for user-independent ventilation of rooms with a coupling member formed with a receptacle for a mandrel of a window handle and to be arranged in engagement with a gear for moving the beats of a window, a housing and an extension fabric drive, wherein the expansion material drive is formed with an expansion material element and a spring element. the spring element is fixed to the coupling element and to the housing, and the expansion element is designed and arranged in such a way that an expansion of the expansion element causes a force to be applied to the spring element near the fixing to the housing and thus causes the window handle coupling to rotate in order to at least partially open the window. a coupling member formed with a receptacle for a mandrel of a window handle and to be arranged in engagement with a gear for moving the beats of a window, a housing and an extension fabric drive, wherein the expansion material drive is formed with an expansion material element and a spring element. the spring element is fixed to the coupling element and to the housing, and the expansion element is designed and arranged in such a way that an expansion of the expansion element causes a force to be applied to the spring element near the fixing to the housing and thus causes the window handle coupling to rotate in order to at least partially open the window.
Gearing device, in particular gearing, wherein the gearing device has a housing having a central housing part, which receives a bearing of an output shaft and a bearing of an input shaft, wherein there is arranged in the housing an oil tank which is at least partly bounded by the central housing part, wherein the gearing device is mounted in a machine or system, in particular a cooling tower system, in such a manner that the output shaft protrudes downwards, i.e. in the direction of gravity, from the housing, wherein the underside of the oil tank is formed by a cover leaktightly connected to the central housing part, wherein the oil tank is connected to an oil pump via a first duct (1,2), characterised in that the cover has on its outside a surface-increasing waviness, and in that the first duct (1,2) is formed as a cutout in the central housing part, in particular wherein the duct is composed of bore sections, in particular running axially, i.e. parallel to the axial direction of the output shaft, and bore sections running transversely thereto.
Industrial furnace comprising at least a firing chamber delimited by at least one wall having at least a through channel, at least a burner inserted into said through channel, wherein said at least one burner comprises: a main tubular body provided with at least one first port for the inlet of a fuel, with at least one second port for the inlet of combustive agent, and with an end nozzle provided with an outlet mouth, during use, facing towards said firing chamber, and means for triggering the combustion of the fuel - combustive agent mixture, at least one duct adapted, during use, to pick up a portion of the gases present within the firing chamber and to convey them at said outlet mouth, wherein said at least one burner comprises at least one tubular element downstream said outlet mouth of said end nozzle within said at least one duct, said end nozzle and said at least one tubular element delimiting there between a passage section for the fluid communication between said at least one duct and said outlet mouth, for the passage of said gas portion, characterized in that said end nozzle and said at least one tubular element are mutually movable along said duct in order to vary the width of said passage section. a main tubular body provided with at least one first port for the inlet of a fuel, with at least one second port for the inlet of combustive agent, and with an end nozzle provided with an outlet mouth, during use, facing towards said firing chamber, and means for triggering the combustion of the fuel - combustive agent mixture, at least one duct adapted, during use, to pick up a portion of the gases present within the firing chamber and to convey them at said outlet mouth, wherein said at least one burner comprises at least one tubular element downstream said outlet mouth of said end nozzle within said at least one duct, said end nozzle and said at least one tubular element delimiting there between a passage section for the fluid communication between said at least one duct and said outlet mouth, for the passage of said gas portion, characterized in that said end nozzle and said at least one tubular element are mutually movable along said duct in order to vary the width of said passage section.
A self-propelling carriage comprising a base frame provided with two wheels, each coupled to an electro-hydraulic motor, and a small pirouetting wheel, wherein it comprises four seatings (211, 221, 311, 321), each designed to receive a foot of a common seat or chair, and fastening means thereof, wherein it further comprises a footplate, with a foot-resting function for a person sat on the said seat or chair, characterized in that each electro-hydraulic motor superiorly exhibits an activating button.
A method for controlling the gain of an automatic gain controller operating in a base station in a time division duplex mode, the method comprising: measuring (610, 810) an incoming signal, received at the base station, during a non-uplink time period in which none of one or more mobile terminals in communication with the base station are allowed to provide uplink communication; determining (620, 820) a noise level based on the incoming signal measured during the non-uplink time period; characterized by setting (630, 830) the gain for an automatic gain controller based on the noise level and uplink signal level from the one or more mobile terminals expected in a future uplink time slot, wherein the gain of the automatic gain controller is for use in the future uplink time slot to provide communications from the one or more mobile terminals to the base station. measuring (610, 810) an incoming signal, received at the base station, during a non-uplink time period in which none of one or more mobile terminals in communication with the base station are allowed to provide uplink communication; determining (620, 820) a noise level based on the incoming signal measured during the non-uplink time period; characterized by setting (630, 830) the gain for an automatic gain controller based on the noise level and uplink signal level from the one or more mobile terminals expected in a future uplink time slot, wherein the gain of the automatic gain controller is for use in the future uplink time slot to provide communications from the one or more mobile terminals to the base station.
Method for starting an internal combustion engine of a hybrid vehicle comprising at least an electric traction motor, a starter, a traction battery connected to the on-board network of said vehicle via a DC-DC converter (CONV), and a low-voltage battery also connected to said on-board network, the method comprising the steps of: - activating the starter, the latter being connected in parallel to said low-voltage battery, - comparing the supply voltage (Valim) of the on-board network with a first predetermined lower threshold, - opening a switch comprising at least one transistor for insulating the on-board network from said low-voltage battery and from the starter when said supply voltage (Valim) of the on-board network is below or equal to said first predetermined lower threshold, said opening step being followed by steps of: - deactivating said starter, - and closing said switch, the step of deactivating the starter being followed by a step of prohibiting starting of said internal combustion engine and of moving into a degraded mode of use of the vehicle. - activating the starter, the latter being connected in parallel to said low-voltage battery, - comparing the supply voltage (Valim) of the on-board network with a first predetermined lower threshold, - opening a switch comprising at least one transistor for insulating the on-board network from said low-voltage battery and from the starter when said supply voltage (Valim) of the on-board network is below or equal to said first predetermined lower threshold, said opening step being followed by steps of: - deactivating said starter, - and closing said switch, - deactivating said starter, - and closing said switch, the step of deactivating the starter being followed by a step of prohibiting starting of said internal combustion engine and of moving into a degraded mode of use of the vehicle.
A laundry treating apparatus comprising: a cabinet; a drum made of a metal material and disposed in the cabinet, wherein the drum receives a laundry therein; and an induction module spaced apart from an outer circumferential surface of the drum, wherein the induction module has a coil formed by turns of a wire, wherein the induction module inductively heats the drum using a magnetic field generated by applying a current to the coil, wherein the induction module includes a rectangular shaped base housing for accommodating the coil, wherein the base housing has straight sections and corner sections, wherein the base housing includes ribs protruding upwards from the base housing to define a slot for accommodating the coil therein, characterised in that a thickness of each of the ribs in each corner section is greater than a thickness of each of the ribs in each straight section, and a thermal-fusing line for thermally fusing the ribs is defined in each of the corner sections, wherein the thermal-fusing line extends across each corner section. a cabinet; a drum made of a metal material and disposed in the cabinet, wherein the drum receives a laundry therein; and an induction module spaced apart from an outer circumferential surface of the drum, wherein the induction module has a coil formed by turns of a wire, wherein the induction module inductively heats the drum using a magnetic field generated by applying a current to the coil, wherein the induction module includes a rectangular shaped base housing for accommodating the coil, wherein the base housing has straight sections and corner sections, wherein the base housing includes ribs protruding upwards from the base housing to define a slot for accommodating the coil therein, characterised in that a thickness of each of the ribs in each corner section is greater than a thickness of each of the ribs in each straight section, and a thermal-fusing line for thermally fusing the ribs is defined in each of the corner sections, wherein the thermal-fusing line extends across each corner section.
A floor mat, which is a multi-component floor mat comprising: A textile component comprising (a) tufted pile carpet wherein face yarns are tufted through a primary backing layer, wherein the face yarns are dyed, printed, or combinations thereof, and (b) a layer of vulcanized rubber material that contains magnetic particles; or a magnetic coating comprising magnetic particles and a binder material; and a base component comprising an unvulcanized rubber that contains magnetic particles; wherein the textile component and the base component are releasably attachable to one another via magnetic attraction. A textile component comprising (a) tufted pile carpet wherein face yarns are tufted through a primary backing layer, wherein the face yarns are dyed, printed, or combinations thereof, and (b) a layer of vulcanized rubber material that contains magnetic particles; or a magnetic coating comprising magnetic particles and a binder material; and (a) tufted pile carpet wherein face yarns are tufted through a primary backing layer, wherein the face yarns are dyed, printed, or combinations thereof, and (b) a layer of vulcanized rubber material that contains magnetic particles; or a magnetic coating comprising magnetic particles and a binder material; and a base component comprising an unvulcanized rubber that contains magnetic particles;
Method for treating industrial water from the petroleum or gas industries or respectively industrial water having a temperature higher than 55°C and lower than or equal to 98°C, said water containing organic matter, said method comprising: - a step of physical separation producing wastes and an effluent, said step comprising a physical separation step or respectively a membrane separation step of a microfiltration or ultrafiltration type conducted on at least one membrane chosen from the group constituted by the immersed membranes or pressurized membranes made of polytetrafluoroethylene (PTFE) and the tubular membranes made of polyvinylidene fluoride (PVDF); - a step of adsorption of at least one part of said organic matter present in said effluent on at least one adsorbent resin chosen from the group comprising the non-ionized reticulated resins and the microporous carbonated resins; - a step of reverse osmosis filtration downstream from said adsorption step. - a step of physical separation producing wastes and an effluent, said step comprising a physical separation step or respectively a membrane separation step of a microfiltration or ultrafiltration type conducted on at least one membrane chosen from the group constituted by the immersed membranes or pressurized membranes made of polytetrafluoroethylene (PTFE) and the tubular membranes made of polyvinylidene fluoride (PVDF); - a step of adsorption of at least one part of said organic matter present in said effluent on at least one adsorbent resin chosen from the group comprising the non-ionized reticulated resins and the microporous carbonated resins; - a step of reverse osmosis filtration downstream from said adsorption step.
A method for generating DRM rights for an item stored unencrypted in a library, the method comprising: receiving a request from a remote client to access the item stored unencrypted in the library; in response to the request, determining whether digital rights management, DRM, is enabled for the library; if DRM is enabled for the library, retrieving access rights for the item; determining whether a plug-in (40A, 40B, 40C) operative to apply the DRM to the item's type of file exists; if the plug-in exists, generating DRM rights for the item from the access rights; passing the item to the plug-in with the generated DRM rights, wherein the plug-in encrypts the item and the DRM rights in a protected file; and returning (424, 426) the protected file in response to the request to access the item. receiving a request from a remote client to access the item stored unencrypted in the library; in response to the request, determining whether digital rights management, DRM, is enabled for the library; if DRM is enabled for the library, retrieving access rights for the item; determining whether a plug-in (40A, 40B, 40C) operative to apply the DRM to the item's type of file exists; if the plug-in exists, generating DRM rights for the item from the access rights; passing the item to the plug-in with the generated DRM rights, wherein the plug-in encrypts the item and the DRM rights in a protected file; and returning (424, 426) the protected file in response to the request to access the item.
An actuator device with at least one output element, which can be supplied with a fluid and is thereby movable into a retaining position, with at least two solid-state actuators (20, 22), which are alternatingly controllable, whereby the fluid can be conveyed to the output element and the output element can be supplied with the fluid, with a coupling element common to the solid-state actuators (20, 22), with at least one discharge channel, via which the fluid can be discharged from the output element, and with at least one valve element, which is shiftable between at least one closed state blocking the discharge channel, in which the output element can be retained in the retaining position by the fluid while blocking the discharge channel, and at least one open state unblocking the discharge channel, in which the valve element allows discharge of the fluid from the output element via the discharge channel and thereby a movement of the output element from the retaining position into at least one evasive position, wherein the valve element can be actuated by the respective solid-state actuator (20, 22) via the coupling element by the respective control of the solid-state actuator (20, 22) and can thereby be brought into the closed state.
A method operable by a central network entity in a wireless communication network, the method comprising: identifying an outage on a first channel of a plurality of channels of a spectrum, wherein each of the plurality of channels is allocated to one of a plurality of operators; wherein the outage is caused by a primary operator accessing a portion of the spectrum; migrating all mobile stations in communication over the first channel of the plurality of channels to at least one other channel of the plurality of channels during the outage; and generating the at least one other channel by scaling a bandwidth of the plurality of channels unaffected by the outage. identifying an outage on a first channel of a plurality of channels of a spectrum, wherein each of the plurality of channels is allocated to one of a plurality of operators; wherein the outage is caused by a primary operator accessing a portion of the spectrum; migrating all mobile stations in communication over the first channel of the plurality of channels to at least one other channel of the plurality of channels during the outage; and generating the at least one other channel by scaling a bandwidth of the plurality of channels unaffected by the outage.
A positive current collector comprising a support layer having two surfaces opposite to each other in a thickness direction of the support layer; a conductive layer arranged on at least one of the two surfaces of the support layer; wherein the conductive layer has a thickness D 1 satisfying 300nm ≤ D 1 ≤ 2μm, preferably 500nm ≤ D 1 ≤ 1.5μm; and wherein the positive current collector has a tensile strain of 3% or more, and the conductive layer has a sheet resistance growth rate of T 1 ≥50%, as determined according to the description, the conductive layer comprises one or more of selected from aluminum, aluminum alloy, nickel, nickel alloy, titanium, and silver. a support layer having two surfaces opposite to each other in a thickness direction of the support layer; a conductive layer arranged on at least one of the two surfaces of the support layer; wherein the conductive layer has a thickness D 1 satisfying 300nm ≤ D 1 ≤ 2μm, preferably 500nm ≤ D 1 ≤ 1.5μm; and wherein the positive current collector has a tensile strain of 3% or more, and the conductive layer has a sheet resistance growth rate of T 1 ≥50%, as determined according to the description, the conductive layer comprises one or more of selected from aluminum, aluminum alloy, nickel, nickel alloy, titanium, and silver.
Foot-operated door opener, comprising a foot-operated actuator mechanism, which is arranged in the lower region on a door during use, wherein the foot-operated actuator mechanism interacts during use with a door-opening mechanism of the foot-operated door opener in order to open the door, wherein the foot-operated actuator mechanism has at least one foot surface element which is moveable between a starting position and an end position, wherein the door-opening mechanism actuates mechanically independently of the foot surface element during use when the foot surface element is released and the foot surface element is at least partially pulled back in the direction of its starting position, characterized in that, when the foot surface element is actuated, a rotary actuation element interacts in a rotating manner with an interaction element of the door-opening mechanism in such a manner that, when the foot surface element is released and at least partially pulled back, the rotary actuation element is free of interaction with respect to the interaction element, and in that, when the foot surface element is actuated, the rotary actuation element runs in a rotating manner onto a run-on element of the door-opening mechanism, wherein the run-on element is thereby displaced in a translatory manner and thereby interacts with a door lock mechanism.
A method for DownLink, DL, frame communication in a multi-hop relay wireless communication system supporting different systems, the method comprising: transmitting, by a Base Station, BS, DL data to a legacy Mobile Station, MS, through a legacy access zone within a DL frame for the BS; characterized by transmitting, by a legacy Relay Station, RS, DL data to the MS having a relay link through a first RS access zone within a DL frame for the legacy RS, wherein the legacy RS supports only a legacy standard; transmitting, by the BS, DL data to a legacy RS through a legacy relay zone within the DL frame for the BS; receiving, by the legacy RS, the DL data from the BS through a RS relay zone within the DL frame for the legacy RS; and transmitting, by the BS, DL data to a new MS through a new zone within the DL frame for the BS, wherein the BS legacy access zone (304, 404) within the DL frame for the BS is identical with the first RS access zone (310, 410) within the DL frame for the legacy RS, wherein the BS new zone (302, 402) within the DL frame for the BS is identical with a second RS access zone (314, 414) within the DL frame for the legacy RS, wherein the DL frame for the BS comprises the legacy access zone for communicating with the legacy MS, the legacy relay zone for communicating with the legacy RS, and the new zone for communicating with the new MS, and further wherein the legacy access zone, the legacy relay zone and the new zone are divided based on a time division scheme. transmitting, by a Base Station, BS, DL data to a legacy Mobile Station, MS, through a legacy access zone within a DL frame for the BS; characterized by transmitting, by a legacy Relay Station, RS, DL data to the MS having a relay link through a first RS access zone within a DL frame for the legacy RS, wherein the legacy RS supports only a legacy standard; transmitting, by the BS, DL data to a legacy RS through a legacy relay zone within the DL frame for the BS; receiving, by the legacy RS, the DL data from the BS through a RS relay zone within the DL frame for the legacy RS; and transmitting, by the BS, DL data to a new MS through a new zone within the DL frame for the BS, wherein the BS legacy access zone (304, 404) within the DL frame for the BS is identical with the first RS access zone (310, 410) within the DL frame for the legacy RS, wherein the BS new zone (302, 402) within the DL frame for the BS is identical with a second RS access zone (314, 414) within the DL frame for the legacy RS, wherein the DL frame for the BS comprises the legacy access zone for communicating with the legacy MS, the legacy relay zone for communicating with the legacy RS, and the new zone for communicating with the new MS, and further wherein the legacy access zone, the legacy relay zone and the new zone are divided based on a time division scheme.