mhurhangee/patent-ind-claim-en huggingface dataset:
An elastic retaining member for fixing a timepiece component on a support element , comprising an opening into which said support element can be inserted, the retaining member comprising rigid arms and elastic arms defined between connection areas of the member , these arms contributing to ensure elastic clamping of the support element in the opening , such a retaining member comprising an outer structure capable of being connected to said timepiece component via at least one point of attachment arranged in an outer peripheral wall of the retaining member and an inner structure comprising an inner peripheral wall of this retaining member , which contributes to defining said opening in such a retaining member , into which the support element is intended to be inserted, the rigid arms and the elastic arms connecting the outer structure and inner structure to one another and the outer structure having an overall hexagonal shape comprising convexly-shaped parts, each rigid arm being provided with a single flat contact area of the retaining member able to cooperate with a corresponding convex contact portion of the support element , each elastic arm being able to deform by way of: - a first torsional elastic deformation, and - a second tensile or extensional elastic deformation, in this retaining member when the support element is inserted into the opening , this support element applies a contact force on the contact areas of the rigid arms , such that the rigid arms are displaced, and the displacement of these rigid arms causes the double elastic deformation of the elastic arms . - a first torsional elastic deformation, and - a second tensile or extensional elastic deformation,
A battery system , comprising a plurality of battery cells and a battery housing enclosing the battery cells in a cell chamber , wherein the battery cells comprise a venting side with venting exits through which venting products exit the battery cells in case of a thermal runaway and a cooling side opposite the venting side in thermal connection with a first side of a cooling plate , the battery system further comprising a guiding channel , formed between a second side of the cooling plate opposite the first side and a channel wall facing the second side of the cooling plate , and a passage connecting the cell chamber with the guiding channel , wherein the battery system is adapted such that in case of a thermal runaway the venting products leaving the battery cells at the venting side into the cell chamber are directed along a venting path (V) from the cell chamber through the passage into the guiding channel , through the guiding channel and via a system exit to an environment of the battery system .
A transport container for transporting a delicate object, comprising: - a casing which is divided in a length direction into several casing segments , wherein the casing is provided with - at least two upright edges extending in the length direction, and situated spaced apart from one another in a width direction extending transversely to the length direction, wherein the upright edges are divided into edge segments corresponding to the several casing segments , wherein at least two adjacent casing segments each comprise at least two edge segments situated spaced apart from one another in the width direction, wherein - the at least two adjacent casing segments together with the corresponding edge segments are foldable about a common rotational axis situated in the plane of the casing , Wherein thanks to a folded structure, the edge segments are rigid in at least one direction perpendicular to the plane of the corresponding casing segments , characterized in that the casing and the at least two upright edges together form a closed transport space in a folded or rolled state for accommodating the delicate object. - a casing which is divided in a length direction into several casing segments , wherein the casing is provided with - at least two upright edges extending in the length direction, and situated spaced apart from one another in a width direction extending transversely to the length direction, wherein the upright edges are divided into edge segments corresponding to the several casing segments , wherein at least two adjacent casing segments each comprise at least two edge segments situated spaced apart from one another in the width direction, wherein - the at least two adjacent casing segments together with the corresponding edge segments are foldable about a common rotational axis situated in the plane of the casing , - the at least two adjacent casing segments together with the corresponding edge segments are foldable about a common rotational axis situated in the plane of the casing ,
A headgear strap for a patient interface, the patient interface comprising a frame, the headgear strap comprising a strap , wherein at least one end of the strap is terminated with a connector wherein the connector is configured to engage a side portion of the frame to connect the strap to the frame upon assembly of the interface, the connector comprising: a body , the body encapsulating an end of the strap , characterized in that the connector comprises: a metal plug portion extending from an end face of the connector , and an overmoulded comparatively soft cover material portion that extends along a length of the strap . a metal plug portion extending from an end face of the connector , and an overmoulded comparatively soft cover material portion that extends along a length of the strap .
A semiconductor manufacturing method comprising the steps of: - (a) positioning an anode in a first end of a base material and a cathode in a second end of the base material, the base material containing an aluminum oxide, the anode causing an oxidation reaction, the cathode causing a reduction reaction; - (b) heating the base material to melt the base material in a state where the anode is in contact with the first end of the base material and the cathode is in contact with the second end of the base material; - (c) causing a current to flow between the anode and the cathode to cause a molten salt electrolysis reaction for a whole of or a part of a period in which the base material is at least partially melted; and - after the step (c), (d) cooling the base material to form a p-type aluminum oxide semiconductor layer and/or an n-type aluminum oxide semiconductor layer. - (a) positioning an anode in a first end of a base material and a cathode in a second end of the base material, the base material containing an aluminum oxide, the anode causing an oxidation reaction, the cathode causing a reduction reaction; - (b) heating the base material to melt the base material in a state where the anode is in contact with the first end of the base material and the cathode is in contact with the second end of the base material; - (c) causing a current to flow between the anode and the cathode to cause a molten salt electrolysis reaction for a whole of or a part of a period in which the base material is at least partially melted; and - after the step (c), (d) cooling the base material to form a p-type aluminum oxide semiconductor layer and/or an n-type aluminum oxide semiconductor layer.
A laboratory device system for handling liquids, comprising: a. a plurality of pipettes having a variable dosing volume, b. an operating and/or display module physically separate from the pipettes , the operating and/or display module completely comprising a display unit and optionally an operating unit , and c. means for wireless communication between the pipettes and the operating and/or display module , d. wherein the operating and/or display module is designed such that it recognizes the respective pipette when communicating with one pipette of the plurality of pipettes , characterized in that the operating and/or display module automatically sets a device-specific user interface on the display unit , and in that the pipettes do not have a display unit. a. a plurality of pipettes having a variable dosing volume, b. an operating and/or display module physically separate from the pipettes , the operating and/or display module completely comprising a display unit and optionally an operating unit , and c. means for wireless communication between the pipettes and the operating and/or display module , d. wherein the operating and/or display module is designed such that it recognizes the respective pipette when communicating with one pipette of the plurality of pipettes , characterized in that the operating and/or display module automatically sets a device-specific user interface on the display unit , and in that the pipettes do not have a display unit.
A shield assembly for connection to a syringe barrel for preventing inadvertent needle sticks after use of the syringe , the shield assembly comprising a cylindrical portion connectable to a front end of the syringe barrel , a shield releasably mounted on said cylindrical portion at a first position, and an urging member for urging said shield in a forward direction relative to the syringe barrel , wherein one of said shield and said cylindrical portion defines two track arrangements on opposing sides of said one of said shield and said barrel, each of said track arrangements , having an entry track with an end joined to a lockout track at an intersection, a first portion of said lockout track extending beyond said intersection to a first end of said lockout track and a second portion of said lockout track extending beyond said intersection to a second end of said lockout track , and the other of said shield and said cylindrical portion includes pins arranged on resilient lever arms and guidably inserted in said track arrangements , said shield being movable from said first position to a second position against the urgency of said urging member when a needle cannula of the syringe is inserted into a patient for delivery of the medicament, wherein, in each of said track arrangements , said pin moving from a first pin position along said entry track at least to the intersection and into a second pin position in said lock-out track during movement of said shield from the first position to the second position, and said shield being moveable from said second position to a third position by the urgency of said urging member upon removal of the needle cannula from the patient to cover the tip of the needle cannula connected to the forward end of the syringe barrel , wherein, in each of said track arrangements , said pin moving along said lockout track from said second pin position to a third pin position solely by the urgency of said urging member during movement of said shield from said second position to said third position, and wherein said one of said shield and said cylindrical portion further comprises a blocking element arranged at said end of said entry track proximate said intersection in at least one of said track arrangements , said blocking element having a fixed blocking surface facing said lock-out track of said at least one of said track arrangements and blocking reentry of the associated one of said pins into said entry track from said lock-out track whereby the forward ends (89 a, 89 b) of said lockout tracks are axially offset so that said shield is held askew relative to said needle cannula by the urgency of said urging member when said shield is in the third position.
- Power Take-off assembly, PTO assembly, for a work vehicle, said PTO assembly comprising a first and a second shaft and a clutch assembly comprising a plurality of lamellas and configured to couple said first and second shaft , said PTO assembly comprising a housing defining an inner space , said clutch assembly and at least an inner portion of said shafts being housed in said inner space , said PTO assembly comprising a hydraulic arrangement for managing the flow of fluid from a source of said work vehicle towards said clutch assembly , said hydraulic arrangement comprising a valve , said valve being housed in a seat realized within at least one between said shafts , the source being fluidly connected to said valve via at least a conduit realized within said at least one between said shafts , said PTO assembly being characterized in that said valve comprises a housing housed in said seat and a spool arranged within said housing in a movable manner parallel to a longitudinal axis (A) of said at least one between said shafts , said housing defining a plurality of openings (23a', 23a", 23a′′′, 23c') configured to be opened or closed, partially or completely, by said spool that is actuated by the pressure of fluid in said at least a conduit , and wherein said valve comprises elastic means housed within said housing and configured to impart a force to said spool that is opposite to the force applied by the pressure applied by fluid in said at least a conduit . said PTO assembly comprising a housing defining an inner space , said clutch assembly and at least an inner portion of said shafts being housed in said inner space , said PTO assembly comprising a hydraulic arrangement for managing the flow of fluid from a source of said work vehicle towards said clutch assembly , said hydraulic arrangement comprising a valve , said valve being housed in a seat realized within at least one between said shafts , the source being fluidly connected to said valve via at least a conduit realized within said at least one between said shafts , said PTO assembly being characterized in that said valve comprises a housing housed in said seat and a spool arranged within said housing in a movable manner parallel to a longitudinal axis (A) of said at least one between said shafts , said housing defining a plurality of openings (23a', 23a", 23a′′′, 23c') configured to be opened or closed, partially or completely, by said spool that is actuated by the pressure of fluid in said at least a conduit , and wherein said valve comprises elastic means housed within said housing and configured to impart a force to said spool that is opposite to the force applied by the pressure applied by fluid in said at least a conduit .
A method for processing a control channel at a user agent, UA, to identify at least one of an uplink and a downlink resource allocated by a resource grant within a multi-carrier communication system wherein resource grants are specified by control channel element, CCE, subset candidates, the method comprising the steps of: determining locations of CCE subset candidates for each carrier; receiving a downlink control information, DCI, message; determining whether each of the CCE subset candidates corresponds to only one carrier; and when the CCE subset candidate corresponds to more than one carrier: (i) decoding the DCI message by identifying a carrier indicator field, CIF, within the DCI message; and (ii) using the CIF to identify a carrier associated with each of the identified CCE subset candidates; and when the CCE subset candidate only corresponds to one carrier, using the location of the CCE subset candidate within a search space to identify the carrier associated with the CCE subset candidate. determining locations of CCE subset candidates for each carrier; receiving a downlink control information, DCI, message; determining whether each of the CCE subset candidates corresponds to only one carrier; and when the CCE subset candidate corresponds to more than one carrier: (i) decoding the DCI message by identifying a carrier indicator field, CIF, within the DCI message; and (ii) using the CIF to identify a carrier associated with each of the identified (i) decoding the DCI message by identifying a carrier indicator field, CIF, within the DCI message; and (ii) using the CIF to identify a carrier associated with each of the identified CCE subset candidates; and when the CCE subset candidate only corresponds to one carrier, using the location of the CCE subset candidate within a search space to identify the carrier associated with the CCE subset candidate.
Use of at least one salt (S) selected from the group consisting of salts of nitric acid, salts of nitrous acid, salts of halogens, salts of trifluoromethanesulfonic acid, and combinations thereof, as an accelerator in an epoxy resin composition for chemically fastening construction elements and anchoring means, in particular anchor rods, anchor bolts, (threaded) rods, (threaded) sleeves, reinforcing bars, and/or screws in boreholes, wherein the epoxy resin composition is a multi-component epoxy resin composition, wherein the multi-component epoxy resin composition comprises an epoxy resin component (A) which contains at least one curable epoxy resin, and a hardener component (B) which contains at least one amine which is reactive to epoxide groups, wherein the epoxy resin component (A) and the hardener component (B) are present separately from one another in a reaction-inhibiting manner, and wherein the amine which is reactive to epoxide groups is selected from 3-aminomethyl-3,5,5-trimethylcyclohexane (IPDA), 2-methyl-1,5-pentanediamine (DYTEK A), m-xylylenediamine (mXDA), 1,3-bis(aminomethyl)cyclohexane (1,3-BAC), 4,4'-methylenebis(cyclohexylamine) (PACM), 4-methylcyclohexane-1,3-diamine (mCDA), 1,2-diaminocyclohexane (1,2-BAC), and mixtures thereof.
A method for controlling the atmosphere in a closable space at least partially filled with agricultural or horticultural products, wherein a carbon dioxide partial pressure is periodically measured inside the closable space, wherein an optimal oxygen partial pressure (P new ) and/or an optimal temperature (T new ) for storing the agricultural or horticultural products is set inside the space, characterised in that the optimal oxygen partial pressure (P new ) and/or the optimal temperature (T new ), is determined and set based on solely the measurements of the carbon dioxide partial pressure, wherein the optimal oxygen partial pressure (P new ) is determined by using the following equation: P new = P old − d CO 2 dt ∗ f CO 2 + d CO 2 dt ∗ f CO 2 AMF + SV , wherein P old is a currently set oxygen partial pressure, d CO 2 dt is a rate of carbon dioxide partial pressure or concentration change, f CO 2 is a variable dependent on the carbon dioxide partial pressure or concentration change in the space, wherein f CO 2 varies between 1 h and 24 h, AMF is a anaerobic metabolism factor, which varies between 1 and 25 and SV is a safety value, which varies between 0 kPa and 2 kPa, wherein the optimal temperature (T new ) is determined by using the following equation: T new = β − d CO 2 dt ∗ f CO 2 CTF f CO 2 + T old , , wherein β is an optimal carbon dioxide release value that varies between 0.1 kPa and 2.0 kPa, T old is a currently set temperature and CTF is a cultivar temperature factor, which varies between 1 (kPa * h)/°C and 25 (kPa * h)/°C. wherein a carbon dioxide partial pressure is periodically measured inside the closable space, wherein an optimal oxygen partial pressure (P new ) and/or an optimal temperature (T new ) for storing the agricultural or horticultural products is set inside the space, characterised in that the optimal oxygen partial pressure (P new ) and/or the optimal temperature (T new ), is determined and set based on solely the measurements of the carbon dioxide partial pressure, wherein the optimal oxygen partial pressure (P new ) is determined by using the following equation: P new = P old − d CO 2 dt ∗ f CO 2 + d CO 2 dt ∗ f CO 2 AMF + SV , wherein P old is a currently set oxygen partial pressure, d CO 2 dt is a rate of carbon dioxide partial pressure or concentration change, f CO 2 is a variable dependent on the carbon dioxide partial pressure or concentration change in the space, wherein f CO 2 varies between 1 h and 24 h, AMF is a anaerobic metabolism factor, which varies between 1 and 25 and SV is a safety value, which varies between 0 kPa and 2 kPa, wherein the optimal temperature (T new ) is determined by using the following equation: T new = β − d CO 2 dt ∗ f CO 2 CTF f CO 2 + T old , , wherein β is an optimal carbon dioxide release value that varies between 0.1 kPa and 2.0 kPa, T old is a currently set temperature and CTF is a cultivar temperature factor, which varies between 1 (kPa * h)/°C and 25 (kPa * h)/°C.
Method for transmitting data between at least two nodes of a network, each of said nodes being attached to at least one IP environment, known as source environment of said node, said method comprising: - a step of assigning, to at least one user agent included in one (NA) of said nodes, a fake address in an IP environment other than the source environment of this node (NA), said fake address resulting from the application of a function to an address in said source environment; and - a step of presenting at least said fake address and a source address of said user agent in said source environment when a communication is set up with at least one remote node (NB), characterized in that said presenting step is executed by said user agent, in at least one message of invitation to enter into communication with said remote node (NB) and/or in at least one response message to a message of invitation to enter into communication sent by said remote node (NB). - a step of assigning, to at least one user agent included in one (NA) of said nodes, a fake address in an IP environment other than the source environment of this node (NA), said fake address resulting from the application of a function to an address in said source environment; and - a step of presenting at least said fake address and a source address of said user agent in said source environment when a communication is set up with at least one remote node (NB), characterized in that said presenting step is executed by said user agent, in at least one message of invitation to enter into communication with said remote node (NB) and/or in at least one response message to a message of invitation to enter into communication sent by said remote node (NB).
A sound outputting method executed in an electronic device, the method comprising: storing a sound output information based on a first application and a second application being executed in the electronic device or categories of the first application and the second application; referring to the stored sound output information if the first application and the second application are executing in a multi-window screen, wherein the first application is displayed in a first area of the multi-window screen and the second application is displayed in a second area of the multi-window screen; providing a user interface, UI, screen for changing the sound output information of the first application and the second application between the first area and the second area; determining a sound output device associated with the first application or the second application, based on the sound output information; and outputting a sound associated with the first application or the second application by using the sound output device, wherein the sound output device is one of an internal speaker of the electronic device or an external speaker. storing a sound output information based on a first application and a second application being executed in the electronic device or categories of the first application and the second application; referring to the stored sound output information if the first application and the second application are executing in a multi-window screen, wherein the first application is displayed in a first area of the multi-window screen and the second application is displayed in a second area of the multi-window screen; providing a user interface, UI, screen for changing the sound output information of the first application and the second application between the first area and the second area; determining a sound output device associated with the first application or the second application, based on the sound output information; and outputting a sound associated with the first application or the second application by using the sound output device, wherein the sound output device is one of an internal speaker of the electronic device or an external speaker.