mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a bobbin of a cast leaf, the method comprising the steps of: - unwinding a mother bobbin comprising a wound web of a material containing alkaloids in such a way to provide a web of a material containing alkaloids, wherein the web of a material containing alkaloids contains between 10 percent and 25 percent in dry weight basis of an aerosol-former; - feeding the web of a material containing alkaloids to an embossing device in a transport direction ; - embossing the web of a material containing alkaloids to form an embossed web of a material containing alkaloids; - winding the embossed web of a material containing alkaloids in a bobbin . - unwinding a mother bobbin comprising a wound web of a material containing alkaloids in such a way to provide a web of a material containing alkaloids, wherein the web of a material containing alkaloids contains between 10 percent and 25 percent in dry weight basis of an aerosol-former; - feeding the web of a material containing alkaloids to an embossing device in a transport direction ; - embossing the web of a material containing alkaloids to form an embossed web of a material containing alkaloids; - winding the embossed web of a material containing alkaloids in a bobbin .
A method of compensating for differences between the operating frequency of a crystal oscillator of a central unit of a security monitoring system and a crystal oscillator of a node of the security monitoring system, the method comprising: tuning a receiver of the central unit to a first frequency sub-channel of multiple frequency sub-channels that together make up a predetermined broader frequency channel; listening for a preamble from the node on the first frequency sub-channel; in the event that no valid preamble is received on the first frequency sub-channel within a predetermined period, tuning the receiver to a second of the multiple frequency sub-channels and listening for a preamble from the node on the second frequency sub- channel; and repeating the tuning and listening process until a valid preamble is received or until all of the multiple frequency sub-channels have been used; in the event that a valid preamble is received on one of the multiple frequency sub-channels, listening for a synch word, and upon detection of a valid synch word causing a radio frequency transceiver of the central unit to transmit an acknowledgement on a radio frequency within the predetermined frequency channel; detecting an offset between the radio frequency of the carrier on which the valid preamble was received and the centre frequency of the predetermined frequency channel; in the event that the offset exceeds a predetermined threshold, transmitting from the central unit information regarding the offset to enable the node to adjust the operating frequency of a transceiver of the node based on the information. listening for a preamble from the node on the first frequency sub-channel; in the event that no valid preamble is received on the first frequency sub-channel within a predetermined period, tuning the receiver to a second of the multiple frequency sub-channels and listening for a preamble from the node on the second frequency sub- channel; and repeating the tuning and listening process until a valid preamble is received or until all of the multiple frequency sub-channels have been used; in the event that a valid preamble is received on one of the multiple frequency sub-channels, listening for a synch word, and upon detection of a valid synch word causing a radio frequency transceiver of the central unit to transmit an acknowledgement on a radio frequency within the predetermined frequency channel; detecting an offset between the radio frequency of the carrier on which the valid preamble was received and the centre frequency of the predetermined frequency channel; in the event that the offset exceeds a predetermined threshold, transmitting from the central unit information regarding the offset to enable the node to adjust the operating frequency of a transceiver of the node based on the information.
A method of making a wind turbine blade, the method comprising: a. providing a first half shell and a second half shell to be joined together to form the wind turbine blade, the half shells each extending in a longitudinal direction; b. attaching a first edge of a shear web to an inner surface of the first half shell ; c. defining a shear web mounting region on an inner surface of the second half shell ; d. attaching at least one guide block to the inner surface of the second half shell adjacent to the shear web mounting region , the guide block having a guide surface oriented transversely to the inner surface of the second half shell ; e. bringing the first and second half shells together whilst guiding a second edge of the shear web over the guide surface of the mounting block towards the shear web mounting region defined on the inner surface of the second half shell ; and f. attaching the second edge of the shear web to the shear web mounting region of the second half shell . a. providing a first half shell and a second half shell to be joined together to form the wind turbine blade, the half shells each extending in a longitudinal direction; b. attaching a first edge of a shear web to an inner surface of the first half shell ; c. defining a shear web mounting region on an inner surface of the second half shell ; d. attaching at least one guide block to the inner surface of the second half shell adjacent to the shear web mounting region , the guide block having a guide surface oriented transversely to the inner surface of the second half shell ; e. bringing the first and second half shells together whilst guiding a second edge of the shear web over the guide surface of the mounting block towards the shear web mounting region defined on the inner surface of the second half shell ; and f. attaching the second edge of the shear web to the shear web mounting region of the second half shell .
A method for transmitting a radio frame by a transmitting device to a receiving device in a wireless communication system, the method characterized by : configuring the radio frame to have one of a first effective subcarrier spacing Δ f 1 and a first cyclic prefix length, and a second effective subcarrier spacing Δ f 2 and a second cyclic prefix length, at the transmitting device ; transmitting the configured radio frame to the receiving device , wherein the first effective subcarrier spacing Δ f 1 is 15kHz, and the second effective subcarrier spacing Δ f 2 is larger than the first effective subcarrier spacing Δ f 1 by alternatively configuring nonzero-power subcarriers and N consecutive zero-power subcarriers along a frequency axis where N>0 and corresponds to a multiple of 15kHz, wherein the second effective subcarrier spacing Δ f 2 is for a high frequency band; wherein the second cyclic prefix length is shorter than the first cyclic prefix length, and wherein a sampling frequency f s, 2 of the frame configured to have the second effective subcarrier spacing is equal to Δ f 2 /Δ f 1 times a sampling frequency f s, 1 of the frame configured to have the first effective subcarrier spacing. configuring the radio frame to have one of a first effective subcarrier spacing Δ f 1 and a first cyclic prefix length, and a second effective subcarrier spacing Δ f 2 and a second cyclic prefix length, at the transmitting device ; transmitting the configured radio frame to the receiving device , wherein the first effective subcarrier spacing Δ f 1 is 15kHz, and the second effective subcarrier spacing Δ f 2 is larger than the first effective subcarrier spacing Δ f 1 by alternatively configuring nonzero-power subcarriers and N consecutive zero-power subcarriers along a frequency axis where N>0 and corresponds to a multiple of 15kHz, wherein the second effective subcarrier spacing Δ f 2 is for a high frequency band; wherein the second cyclic prefix length is shorter than the first cyclic prefix length, and wherein a sampling frequency f s, 2 of the frame configured to have the second effective subcarrier spacing is equal to Δ f 2 /Δ f 1 times a sampling frequency f s, 1 of the frame configured to have the first effective subcarrier spacing.
A thin film transistor (400A; 400B) comprising: an oxide semiconductor layer formed on a flexible substrate ; a gate electrode formed on the oxide semiconductor layer , a first surface of the oxide semiconductor layer facing the gate electrode ; a source electrode and a drain electrode electrically connected to the oxide semiconductor layer , respectively, the oxide semiconductor layer , gate electrode , source electrode and drain electrode arranged in a coplanar transistor configuration; and a light-blocking element arranged to shield a second surface of the oxide semiconductor layer from external light, wherein the second surface of the oxide semiconductor layer is a side surface of the oxide semiconductor layer , the light-blocking element shielding the side surface of the oxide semiconductor layer from the external light, wherein the light-blocking element comprises: a portion of at least one of the drain electrode and the source electrode that covers the side surface of the oxide semiconductor layer , wherein the at least one of the drain electrode and the source electrode contacts only the second surface of the oxide semiconductor layer . an oxide semiconductor layer formed on a flexible substrate ; a gate electrode formed on the oxide semiconductor layer , a first surface of the oxide semiconductor layer facing the gate electrode ; a source electrode and a drain electrode electrically connected to the oxide semiconductor layer , respectively, the oxide semiconductor layer , gate electrode , source electrode and drain electrode arranged in a coplanar transistor configuration; and a light-blocking element arranged to shield a second surface of the oxide semiconductor layer from external light, wherein the second surface of the oxide semiconductor layer is a side surface of the oxide semiconductor layer , the light-blocking element shielding the side surface of the oxide semiconductor layer from the external light, wherein the light-blocking element comprises: a portion of at least one of the drain electrode and the source electrode that covers the side surface of the oxide semiconductor layer , wherein the at least one of the drain electrode and the source electrode contacts only the second surface of the oxide semiconductor layer . a portion of at least one of the drain electrode and the source electrode that covers the side surface of the oxide semiconductor layer , wherein the at least one of the drain electrode and the source electrode contacts only the second surface of the oxide semiconductor layer .
An apparatus for filling containers in a sterile environment, comprising: a filling unit configured to fill containers with sterilized liquids or powders in a sterile environment, said filling unit comprising interchangeable parts characteristic of each production run; characterized in that the apparatus further comprises: a washer sterilizer configured to wash, sterilize, decontaminate, dry in one single process said interchangeable parts of the filling unit before each run for filling the unit ; wherein the washer sterilizer is directly coupled to the filling unit and is configured to transfer aseptically said interchangeable parts directly to the filling unit . a filling unit configured to fill containers with sterilized liquids or powders in a sterile environment, said filling unit comprising interchangeable parts characteristic of each production run; configured to fill containers with sterilized liquids or powders in a sterile environment, said filling unit comprising interchangeable parts characteristic of each production run; characterized in that the apparatus further comprises: a washer sterilizer configured to wash, sterilize, decontaminate, dry in one single process said interchangeable parts of the filling unit before each run for filling the unit ; wherein the washer sterilizer is directly coupled to the filling unit and is configured to transfer aseptically said interchangeable parts directly to the filling unit . a washer sterilizer configured to wash, sterilize, decontaminate, dry in one single process said interchangeable parts of the filling unit before each run for filling the unit ; wherein the washer sterilizer is directly coupled to the filling unit and is configured to transfer aseptically said interchangeable parts directly to the filling unit .
An injection molding machine comprising: an injection unit which is electrically driven; and a mold clamping unit which includes a stationary platen to which a stationary mold of a mold unit is attached and a movable platen to which a movable mold of the mold unit is attached and in which operations related to a mold closing process, a mold clamping process, and a mold opening process of the mold unit are hydraulically driven, characterized in that the mold clamping unit includes a hydraulic cylinder adapted to drive the movable platen in a direct pressure manner, a hydraulic pump adapted to supply hydraulic oil to the hydraulic cylinder , and an electric motor adapted to drive the hydraulic pump , a hydraulic circuit adapted to hydraulically drive the mold clamping unit is constituted by a closed circuit, and the hydraulic circuit includes the hydraulic pump , a hydraulic tank , stop valves (163 to 165), aprefill valve , and oil passages (OL1 to OL4). an injection unit which is electrically driven; and a mold clamping unit which includes a stationary platen to which a stationary mold of a mold unit is attached and a movable platen to which a movable mold of the mold unit is attached and in which operations related to a mold closing process, a mold clamping process, and a mold opening process of the mold unit are hydraulically driven, characterized in that the mold clamping unit includes a hydraulic cylinder adapted to drive the movable platen in a direct pressure manner, a hydraulic pump adapted to supply hydraulic oil to the hydraulic cylinder , and an electric motor adapted to drive the hydraulic pump , a hydraulic cylinder adapted to drive the movable platen in a direct pressure manner, a hydraulic pump adapted to supply hydraulic oil to the hydraulic cylinder , and an electric motor adapted to drive the hydraulic pump , a hydraulic circuit adapted to hydraulically drive the mold clamping unit is constituted by a closed circuit, and the hydraulic circuit includes the hydraulic pump , a hydraulic tank , stop valves (163 to 165), aprefill valve , and oil passages (OL1 to OL4).
Tail lift for a motor vehicle , in particular a commercial vehicle, comprising: a platform ; at least one camera which is designed to capture an image of a field of view of the camera , wherein the camera is arranged such that the image at least partially maps a region below the platform when the platform is in a pivoting position in the field of view of the camera ; an evaluation device which is designed, depending on the captured image , to provide a signal which characterizes a presence of at least part of an object (304a - 304b), in particular a person , in a danger region ; and a control device which is designed, depending on the signal , to stop or prevent a movement of the platform by means of a control signal , wherein the control device is designed, by means of an automated operation, to continue or initiate the movement of the platform by means of the control signal when the at least one object (304a- 304d), in particular the person , is remote from the danger region . a platform ; at least one camera which is designed to capture an image of a field of view of the camera , wherein the camera is arranged such that the image at least partially maps a region below the platform when the platform is in a pivoting position in the field of view of the camera ; an evaluation device which is designed, depending on the captured image , to provide a signal which characterizes a presence of at least part of an object (304a - 304b), in particular a person , in a danger region ; and a control device which is designed, depending on the signal , to stop or prevent a movement of the platform by means of a control signal , wherein the control device is designed, by means of an automated operation, to continue or initiate the movement of the platform by means of the control signal when the at least one object (304a- 304d), in particular the person , is remote from the danger region .
A method for determining the presence, absence or one or more characteristics of a target analyte, comprising: (a) contacting the target analyte with a CsgG pore such that the target analyte moves with respect to the pore, wherein the pore comprises a mutant CsgG monomer comprising a variant of the sequence shown in SEQ ID NO: 2 which comprises: R97W; R93W; R93Y and R97Y; F191T; deletion of V105, A106 and 1107; and/or deletion of one or more of positions R192, F193, 1194, D195, Y196, Q197, R198, L199, L200 and E201, wherein the mutant CsgG monomer retains the ability to form a pore; and (b) taking one or more measurements as the analyte moves with respect to the pore and thereby determining the presence, absence or one or more characteristics of the analyte. (a) contacting the target analyte with a CsgG pore such that the target analyte moves with respect to the pore, wherein the pore comprises a mutant CsgG monomer comprising a variant of the sequence shown in SEQ ID NO: 2 which comprises: R97W; R93W; R93Y and R97Y; F191T; deletion of V105, A106 and 1107; and/or deletion of one or more of positions R192, F193, 1194, D195, Y196, Q197, R198, L199, L200 and E201, wherein the mutant CsgG monomer retains the ability to form a pore; and (b) taking one or more measurements as the analyte moves with respect to the pore and thereby determining the presence, absence or one or more characteristics of the analyte.
A method of capturing haptic content of an object, the capturing involves a plurality of communication devices, the method, being executed in a haptic device, comprising: - recognizing haptic content captured by a first communication device and properties associated with the captured haptic content; - recognizing properties associated with a second communication device; - determining , at least partly based on the recognized properties, associated with the captured haptic content and the second communication device that the second communication device is to participate in the capturing of the haptic content; - transmitting at least parts of the haptic content captured by the first communication device and the properties associated with the captured parts, to the second communication device; - recognizing haptic content captured by the second communication device, and - combining the haptic content captured by the first communication device with the haptic content captured by the second device. - recognizing haptic content captured by a first communication device and properties associated with the captured haptic content; - recognizing properties associated with a second communication device; - determining , at least partly based on the recognized properties, associated with the captured haptic content and the second communication device that the second communication device is to participate in the capturing of the haptic content; - transmitting at least parts of the haptic content captured by the first communication device and the properties associated with the captured parts, to the second communication device; - recognizing haptic content captured by the second communication device, and - combining the haptic content captured by the first communication device with the haptic content captured by the second device.
A redirection method, comprising: Obtaining , by a control plane network element , a content transmission request sent from a content server , wherein the content transmission request comprises identification information of the to-be-transmitted content and a redirected address information; Determining , by the control plane network element based on the content transmission request, a cache node configured to store to-be-transmitted content and an aggregation user plane network element associated with the cache node and configured to aggregate the to-be-transmitted content from the cache node ; and Sending , by the control plane network element , a traffic flow matching parameter to the aggregation user plane network element , wherein the traffic flow matching parameter comprises the redirected address information and wherein the traffic flow matching parameter is used to match a traffic flow of the to-be-transmitted content and wherein the redirected address information is used to determine a connection used to transmit a matched traffic flow, wherein the connection comprises a transport layer connection between the terminal device that requests the to-be-transmitted content and the aggregation user plane network element and/or a transport layer connection between the aggregation user plane network element and the cache node ; and Sending , by the control plane network element , the traffic flow matching parameter to a terminal device that requests the to-be-transmitted content. Obtaining , by a control plane network element , a content transmission request sent from a content server , wherein the content transmission request comprises identification information of the to-be-transmitted content and a redirected address information; Determining , by the control plane network element based on the content transmission request, a cache node configured to store to-be-transmitted content and an aggregation user plane network element associated with the cache node and configured to aggregate the to-be-transmitted content from the cache node ; and Sending , by the control plane network element , a traffic flow matching parameter to the aggregation user plane network element , wherein the traffic flow matching parameter comprises the redirected address information and wherein the traffic flow matching parameter is used to match a traffic flow of the to-be-transmitted content and wherein the redirected address information is used to determine a connection used to transmit a matched traffic flow, wherein the connection comprises a transport layer connection between the terminal device that requests the to-be-transmitted content and the aggregation user plane network element and/or a transport layer connection between the aggregation user plane network element and the cache node ; and Sending , by the control plane network element , the traffic flow matching parameter to a terminal device that requests the to-be-transmitted content.