mhurhangee/patent-ind-claim-en huggingface dataset:
Switchgear cabinet system comprising a base module and a plurality of functional modules , wherein the base module has a housing with a housing side and openings in the housing side , first connection elements and second connection elements , wherein the first connection elements provide data connections and extra-low-voltage connections , wherein the second connection elements provide low-voltage connections , wherein the first connection elements are arranged within the housing in the region of openings , wherein the data connections are connected to a data line , wherein the extra-low-voltage connections are connected to an extra-low-voltage line , wherein the low-voltage connections are connected to a low-voltage line , wherein an extra-low voltage of up to 50 volts AC and/or 120 volts DC can be provided via the extra-low-voltage line and the extra-low-voltage connections and a low voltage of above the extra-low voltage and up to 1000 volts AC and/or 1500 volts DC can be provided via the low-voltage line and the low-voltage connections , wherein the functional modules each have a module housing , an electronic circuit and a module connection element , wherein the module connection element is connected to the electronic circuit , wherein the module housing has a module housing side , wherein the module housing side has a module housing opening , wherein the module connection element comprises a first plug-in element , wherein the first plug-in element extends through the module housing opening from the interior of the module housing to the exterior of the module housing and is designed to engage into the first connection elements of the base module , wherein, for at least one functional module , the module connection element comprises a second plug-in element , wherein the second plug-in element is designed to engage into the second connection elements of the base module , characterized in that the first plug-in element is subdivided at least into a first region and a second region , in that first plug-in contacts for transmitting data are arranged in the first region and in that second plug-in contacts for transmitting extra-low voltage are arranged in the second region , in that the first connection element is subdivided into at least a third region and a fourth region , in that third plug-in contacts for transmitting data are arranged in the third region and fourth plug-in contacts for transmitting extra-low-voltage are arranged in the fourth region , in that the first plug-in contacts can be connected to the third plug-in contacts and in that the second plug-in contacts can be connected to the fourth plug-in contacts , in that the first plug-in contacts and the second plug-in contacts are configured differently, and in that the first connection elements and the second connection elements are arranged in a manner spaced apart from one another.
A method performed by a User Equipment, in the following also referred to as UE, the method comprising: receiving a message associated with Physical Uplink Shared Channel, in the following also referred to as PUSCH, parameter configuration , wherein: the message comprises either a first parameter indicative of a list of entries associated with time resource allocation for multiple PUSCHs or a second parameter that at least one of configures or indicates an aggregation factor; the list does not comprise a third parameter for configuring a number of repetitions; receiving a Downlink Control Information, in the following also referred to as DCI, indicative of a first entry in the list , wherein the first entry is indicative of one or more time resource allocations; and performing one or more transmissions on one or more time occasions , wherein a number of time occasions of the one or more time occasions is based on a number of time resource allocations of the one or more time resource allocations, wherein the UE is a UE set as not allowed to be concurrently configured with both the first parameter and the second parameter. receiving a message associated with Physical Uplink Shared Channel, in the following also referred to as PUSCH, parameter configuration , wherein: the message comprises either a first parameter indicative of a list of entries associated with time resource allocation for multiple PUSCHs or a second parameter that at least one of configures or indicates an aggregation factor; the list does not comprise a third parameter for configuring a number of repetitions; the message comprises either a first parameter indicative of a list of entries associated with time resource allocation for multiple PUSCHs or a second parameter that at least one of configures or indicates an aggregation factor; the list does not comprise a third parameter for configuring a number of repetitions; receiving a Downlink Control Information, in the following also referred to as DCI, indicative of a first entry in the list , wherein the first entry is indicative of one or more time resource allocations; and performing one or more transmissions on one or more time occasions , wherein a number of time occasions of the one or more time occasions is based on a number of time resource allocations of the one or more time resource allocations, wherein the UE is a UE set as not allowed to be concurrently configured with both the first parameter and the second parameter.
A method for the additive manufacturing of a three-dimensional component from a powder , comprising the following steps: dividing a layer structure model of the component to be manufactured into a core region and a casing region adjoining the core region , wherein the casing region forms at least one section of the surface of the three-dimensional component , and performing a layer-based irradiation process based on the layer structure model, in which a density of irradiated powder layers in the casing region is lower than in the core region adjoining in the layer plane direction, wherein the density is given by the number of irradiated powder layers in the direction of the normal of the powder layers per unit length, wherein the component has an overhang structure and is manufactured by selective laser melting on a construction platform , further comprising the following steps: providing an irradiation plan based on a layer structure model of the three-dimensional component , wherein the layer structure model comprises a sequence of layers (nk, n1,...n9), each of which is associated with a layer-specific contour of the component , wherein the sequence comprises a first subgroup of layers (n1, n3, n5) and a second subgroup of layers (n2_s, n4_s, n6_s) which are nested within each other, and wherein in the first subgroup of layers (n1, n3, n5) in the region of the overhang structure an irradiation of the powder up to the contour is planned, and in the second subgroup of layers in the region of the overhang structure an irradiation of the powder only is planned to a distance (a2, a4, a6) from the contour , and performing a sequential application of powder layers on the construction platform and irradiating the powder layers with irradiation parameters of the laser beam according to the irradiation plan. providing an irradiation plan based on a layer structure model of the three-dimensional component , wherein the layer structure model comprises a sequence of layers (nk, n1,...n9), each of which is associated with a layer-specific contour of the component , wherein the sequence comprises a first subgroup of layers (n1, n3, n5) and a second subgroup of layers (n2_s, n4_s, n6_s) which are nested within each other, and wherein in the first subgroup of layers (n1, n3, n5) in the region of the overhang structure an irradiation of the powder up to the contour is planned, and in the second subgroup of layers in the region of the overhang structure an irradiation of the powder only is planned to a distance (a2, a4, a6) from the contour , and performing a sequential application of powder layers on the construction platform and irradiating the powder layers with irradiation parameters of the laser beam according to the irradiation plan.
A plurality of special locks having a multiplicity of sub-types such as different sizes, different manufacturing designs or styles, etc. for improving airline luggage inspection by making such inspection secure yet non-intrusive, each lock comprising: a first lock portion in the form of any kind of locking mechanism useful for and easily accessible by the passenger and a master key lock portion, the master key lock portion being for receiving a master key that can open the master key lock portion of all sub-types of special locks, the special lock being designed to be applied to an individual piece of airline luggage, the special lock also having indicia thereon conveying to luggage purchasers and to the luggage screening authority that the special lock is a lock that the luggage screening authority has agreed not to break. a first lock portion in the form of any kind of locking mechanism useful for and easily accessible by the passenger and a master key lock portion, the master key lock portion being for receiving a master key that can open the master key lock portion of all sub-types of special locks, the special lock being designed to be applied to an individual piece of airline luggage, the special lock also having indicia thereon conveying to luggage purchasers and to the luggage screening authority that the special lock is a lock that the luggage screening authority has agreed not to break.
A device for introducing a catheter into a patient's vasculature, the device comprising: a housing ; a distal sheath extending distally from the housing and adapted to be inserted into a patient's vasculature with the housing positioned outside of the patient's vasculature; a distal hemostatic seal mounted within the housing ; a proximal hemostatic seal mounted within the housing at a location proximal to the distal hemostatic seal ; a tube positioned within the housing and movable longitudinally relative to the distal hemostatic seal between a proximal position and a distal position, wherein in the proximal position a distal end of the tube is positioned proximal to the distal hemostatic seal with the distal hemostatic seal closed, and wherein in the distal position the distal end of the tube extends through the distal hemostatic seal ; characterized in that a proximal end of the tube , or an end of another tube of the device, is movable longitudinally relative to the proximal hemostatic seal between a first position within the proximal hemostatic seal and a second position not within the proximal hemostatic seal . a housing ; a distal sheath extending distally from the housing and adapted to be inserted into a patient's vasculature with the housing positioned outside of the patient's vasculature; a distal hemostatic seal mounted within the housing ; a proximal hemostatic seal mounted within the housing at a location proximal to the distal hemostatic seal ; a tube positioned within the housing and movable longitudinally relative to the distal hemostatic seal between a proximal position and a distal position, wherein in the proximal position a distal end of the tube is positioned proximal to the distal hemostatic seal with the distal hemostatic seal closed, and wherein in the distal position the distal end of the tube extends through the distal hemostatic seal ; characterized in that a proximal end of the tube , or an end of another tube of the device, is movable longitudinally relative to the proximal hemostatic seal between a first position within the proximal hemostatic seal and a second position not within the proximal hemostatic seal .
Pack for preparing a food or beverage product from one or more ingredients, the pack comprising an insert and a container ; the container being configured by at least one flexible sheet folded in such a way to configure a container where one or more ingredients can be stored; the insert comprising a dispensing outlet through where the food or beverage product is delivered and an obturable entry which is in direct communication with the dispensing outlet , whereby the obturable entry can be closed by external pressing means in a machine pressing the at least one flexible sheet over this entry , so that partial or complete closure of the dispensing outlet is achieved, the insert further comprising a primary inlet and optionally also a secondary inlet through where water and air can be introduced inside the volume of the container .
An energy generator system comprising: an air intake system configured to intake air; a rotor configured to be rotated by wind; and an air compression system comprising an air compressor; wherein the energy generator system is configured to adopt a working configuration in which the rotor is rotating and thereby powering the air compressor, the air compressor is in fluid communication with and receives air from the air intake system, and the air compressor is compressing air received from the air intake system and producing compressed air, further comprising a wind tower housing and supporting the air compression system at a sufficient height to encounter wind, the wind tower comprising a hub and an elongate pylon, wherein the hub supports the rotor and the air compression system and the pylon supports the hub, wherein the air intake system is contained within the pylon, wherein the air intake system comprises an air chamber positioned within the pylon, the air intake system further comprising air intake port in fluid communication with an interior of the air chamber, and wherein the air chamber comprises an upper air chamber section and a lower air chamber section separated by an air circulation device, wherein the lower air chamber section is configured to receive air from the air intake port, and the air circulation device is configured to generate a vortex in air passing from the lower air chamber section to the upper air chamber section towards the air compression system. an air intake system configured to intake air; a rotor configured to be rotated by wind; and an air compression system comprising an air compressor; wherein the energy generator system is configured to adopt a working configuration in which the rotor is rotating and thereby powering the air compressor, the air compressor is in fluid communication with and receives air from the air intake system, and the air compressor is compressing air received from the air intake system and producing compressed air, further comprising a wind tower housing and supporting the air compression system at a sufficient height to encounter wind, the wind tower comprising a hub and an elongate pylon, wherein the hub supports the rotor and the air compression system and the pylon supports the hub, wherein the air intake system is contained within the pylon, wherein the air intake system comprises an air chamber positioned within the pylon, the air intake system further comprising air intake port in fluid communication with an interior of the air chamber, and wherein the air chamber comprises an upper air chamber section and a lower air chamber section separated by an air circulation device, wherein the lower air chamber section is configured to receive air from the air intake port, and the air circulation device is configured to generate a vortex in air passing from the lower air chamber section to the upper air chamber section towards the air compression system.
An assay method for the determination of organic and inorganic compounds binding to cardiolipin using 3,6-di(azetidin-1-yl)-10-(3-(trimethylsilyl)propyl)acridin-10-ium iodide (I) as fluorescent probe.
Conveyor unit for conveying load carriers , comprising - a frame structure having two or more rollers which are mounted so as to be rotatable in relation to the frame structure ; - a supporting element which can be brought into contact with the load carrier and can be moved by means of a lifting device in a vertical direction in relation to the frame structure between a raised position and a lowered position; characterised in that the frame structure has a profile underside which, in at least one section , has a vertical distance (b1) from a floor plane , defined by the contact surfaces of the two or more rollers , which is greater than the vertical distance (b2) between the remaining sections of the profile underside and the floor plane , and at least one part (7-10) of the conveyor unit is raised and lowered together with the supporting element and, in the lowered position of the supporting element , is arranged at least partially below a section of the profile underside . - a frame structure having two or more rollers which are mounted so as to be rotatable in relation to the frame structure ; - a supporting element which can be brought into contact with the load carrier and can be moved by means of a lifting device in a vertical direction in relation to the frame structure between a raised position and a lowered position; characterised in that the frame structure has a profile underside which, in at least one section , has a vertical distance (b1) from a floor plane , defined by the contact surfaces of the two or more rollers , which is greater than the vertical distance (b2) between the remaining sections of the profile underside and the floor plane , and at least one part (7-10) of the conveyor unit is raised and lowered together with the supporting element and, in the lowered position of the supporting element , is arranged at least partially below a section of the profile underside .
A sound absorbing and insulating material comprising: a nonwoven fabric comprising 30-100 wt% of a heat-resistant fiber having a fineness of 1-15 denier, a yarn length of 20-100 mm, a limiting oxygen index (LOI) of 25% or greater and a heat resistance temperature of 150 oC or greater; and a polyimide binder impregnated into the nonwoven fabric and present in the same layer as the nonwoven fabric, being distributed and attached on a yarn surface of the nonwoven fabric and maintaining a three-dimensional structure inside the nonwoven fabric by maintaining or further forming micro cavities of the nonwoven fabric, wherein the sound absorbing and insulating material is molded to correspond to a three-dimensional shape of an object to which the sound absorbing and insulating material is applied. a nonwoven fabric comprising 30-100 wt% of a heat-resistant fiber having a fineness of 1-15 denier, a yarn length of 20-100 mm, a limiting oxygen index (LOI) of 25% or greater and a heat resistance temperature of 150 oC or greater; and a polyimide binder impregnated into the nonwoven fabric and present in the same layer as the nonwoven fabric, being distributed and attached on a yarn surface of the nonwoven fabric and maintaining a three-dimensional structure inside the nonwoven fabric by maintaining or further forming micro cavities of the nonwoven fabric, wherein the sound absorbing and insulating material is molded to correspond to a three-dimensional shape of an object to which the sound absorbing and insulating material is applied.
A mask for surface snorkelling comprising a rigid frame , a transparent visor , a soft face mask sealingly applicable to the face of the user and having a membrane which delimits an upper viewing chamber being shaped to contain the eyes of the user and a lower breathing chamber being shaped to contain the nose and mouth of the user, characterised in that it comprises a first two-way circuit of forced air exchange induced by a user's breathing , said first circuit connecting said lower chamber with the external atmospheric environment, and a second bidirectional circuit of convective air exchange induced by the temperature difference between the upper chamber and the external atmospheric environment, said second circuit connecting said upper chamber with the external atmospheric environment for aeration of the upper chamber and comprising a diffuser extending internally of the upper chamber towards the zone in front of the user's eyes.
A method of manufacturing a thin film transistor, the method comprising the steps of: forming a gate electrode on a substrate; forming a gate insulator; forming a source electrode and a drain electrode; and forming a channel configured to electrically connect the source electrode with the drain electrode, wherein the channel is formed by sputtering a transparent metal oxide layer in a controlled partial pressure of oxygen in an inert gas, the transparent metal oxide is zinc oxide, and the sputtering is performed at room temperature characterized in that the transparent zinc oxide layer is un-doped, the partial pressure of oxygen is in a range of 0.1Pc to 10Pc in inert gas, wherein Pc is a critical oxygen partial pressure, for which the change in resistivity, ΔR c , in the vicinity of Pc is very large and abrupt, and the critical oxygen partial pressure is 10 -5 Torr, and wherein the source electrode, the drain electrode and the gate electrode are resistance evaporated Al with each of them having a thickness of about 100 nm, the un-doped transparent zinc oxide layer being made by rf magnetron sputtering in a mixture of argon and oxygen gases and has a thickness of about 100 nm, the gate insulator is Al 2 O 3 and is e-beam vapor-deposited with a thickness between 100 nm and 300 nm, and the substrate is a flexible substrate of polyethylene terephthalate (PET). forming a gate electrode on a substrate; forming a gate insulator; forming a source electrode and a drain electrode; and forming a channel configured to electrically connect the source electrode with the drain electrode, wherein the channel is formed by sputtering a transparent metal oxide layer in a controlled partial pressure of oxygen in an inert gas, the transparent metal oxide is zinc oxide, and the sputtering is performed at room temperature characterized in that the transparent zinc oxide layer is un-doped, the partial pressure of oxygen is in a range of 0.1Pc to 10Pc in inert gas, wherein Pc is a critical oxygen partial pressure, for which the change in resistivity, ΔR c , in the vicinity of Pc is very large and abrupt, and the critical oxygen partial pressure is 10 -5 Torr, and wherein the source electrode, the drain electrode and the gate electrode are resistance evaporated Al with each of them having a thickness of about 100 nm, the un-doped transparent zinc oxide layer being made by rf magnetron sputtering in a mixture of argon and oxygen gases and has a thickness of about 100 nm, the gate insulator is Al 2 O 3 and is e-beam vapor-deposited with a thickness between 100 nm and 300 nm, and the substrate is a flexible substrate of polyethylene terephthalate (PET).