mhurhangee/patent-ind-claim-en huggingface dataset:
Frame profile of a blind frame and/or casement frame of a window or of a door, comprising a core profile made of plastic, wherein a casing shell is arranged on at least one, preferably on both, of the mutually opposite outer walls of the core profile , wherein at least one of the outer walls, preferably both, has at least one fastening groove extending in the longitudinal direction of the core profile , preferably which extends over the entire length of the core profile , by means of which the outer wall is shifted inwardly into the core profile in the region of the fastening groove and whose groove bottom has a height which is at least 50%, preferably at least 70%, of the total height of the outer wall of the core profile , wherein the casing shell is fastened in the fastening groove and covers the fastening groove , preferably covers the entire outer wall, and the casing shell has on its inner surface, which faces towards the core profile , a pair of fastening elements which are spaced apart in the vertical direction and project towards the core profile and by means of which the casing shell is fastened in the fastening groove , characterized in that a. between the pair of fastening elements , by means of which a non-adhesive fastening of the casing shell is achieved, there is arranged at least one further pair of adhesive feet which are spaced apart in the vertical direction, or b. the fastening elements of the pair are each formed as an adhesive foot by means of a projection having an adhesive surface, which faces towards the groove bottom , for receiving adhesive , wherein the adhesive surface latchingly engages behind an undercut on the fastening groove wall, with the result that fastening of the casing shell is realized in each case via a mechanical connection and an additional adhesive connection by means of which the core profile is combined with the casing shell (20, 20 40, 40') with shear resistance/shear spring stiffness. a. between the pair of fastening elements , by means of which a non-adhesive fastening of the casing shell is achieved, there is arranged at least one further pair of adhesive feet which are spaced apart in the vertical direction, or b. the fastening elements of the pair are each formed as an adhesive foot by means of a projection having an adhesive surface, which faces towards the groove bottom , for receiving adhesive , wherein the adhesive surface latchingly engages behind an undercut on the fastening groove wall,
A system for containing pressure in a well, comprising: a retrievable cement bushing comprising: a body having an internal longitudinal passage therethrough; an engagement lug mounted on the body, the engagement lug being movable in a radially outward direction and having an outer engagement feature oriented to engage a corresponding feature in a surrounding wall ; a sleeve having a hollow interior sized to receive a slick joint , the sleeve being movable to a radially inward position relative to the engagement lug , the sleeve holding the engagement lug in a radially outward position when the sleeve is located at the radially inward position; characterized by a retention member comprising: a retainer positioned between the sleeve and the engagement lug and at least one locking lug pivotably mounted to the sleeve for pivotable movement in a radially outward direction to a locked position, the at least one locking lug being positioned to selectively lock the sleeve at the radially inward position relative to the engagement lug . a body having an internal longitudinal passage therethrough; an engagement lug mounted on the body, the engagement lug being movable in a radially outward direction and having an outer engagement feature oriented to engage a corresponding feature in a surrounding wall ; a sleeve having a hollow interior sized to receive a slick joint , the sleeve being movable to a radially inward position relative to the engagement lug , the sleeve holding the engagement lug in a radially outward position when the sleeve is located at the radially inward position; characterized by a retention member comprising: a retainer positioned between the sleeve and the engagement lug and at least one locking lug pivotably mounted to the sleeve for pivotable movement in a radially outward direction to a locked position, the at least one locking lug being positioned to selectively lock the sleeve at the radially inward position relative to the engagement lug .
Self-cleaning filter which incorporates an inlet of a fluid stream, a filtering element with an inner surface and comprises a rotating shaft with a series of solidly attached brushes that make contact with the inner surface of the filtering element for cleaning the inner surface of the filtering element , the rotating shaft being attached to the shaft of a propeller , the self-cleaning filter being characterised in that it comprises a reduction gearbox with an input shaft attached to the shaft of the propeller and an output shaft attached to the rotating shaft and in that the propeller is activated by the movement of a portion of the fluid stream wherein the self-cleaning filter is submerged, causing the propeller to rotate, which in turn drags, through the coupling of the reduction gearbox , the rotation shaft and therefore the brushes and in that it comprises a mechanical fuse located between the rotating shaft and the output shaft of the reduction gearbox .
Method for assembling a handling unit of filled containers in a filling plant, especially for beverages or pharmaceutical products, comprising the following steps: a) supplying the filled containers in the form of glass bottles, plastic bottles, canisters, barrels, and/or plastic bags, the containers comprising at least a first and a second container type, and the first and second container type being different with respect to at least one container parameter from the following group of parameters: height, base area, base area shape and the mechanical load capacity of the container; b) arranging the supplied containers on a handling unit carrier, wherein the arrangement of the containers with respect to the number and/or the position and/or the rotational position of the containers on the handling unit carrier is made in dependence on the at least one container parameter of the first and second container type. a) supplying the filled containers in the form of glass bottles, plastic bottles, canisters, barrels, and/or plastic bags, the containers comprising at least a first and a second container type, and the first and second container type being different with respect to at least one container parameter from the following group of parameters: height, base area, base area shape and the mechanical load capacity of the container; b) arranging the supplied containers on a handling unit carrier, wherein the arrangement of the containers with respect to the number and/or the position and/or the rotational position of the containers on the handling unit carrier is made in dependence on the at least one container parameter of the first and second container type.
An anti-CD20 antibody for use in a method of improving functional ability in a human patient having multiple sclerosis comprising administering to the patient an effective amount of the anti-CD20 antibody, wherein the patient has improvement in functional ability after treatment; wherein the anti-CD20 antibody is ocrelizumab; wherein the multiple sclerosis is a primary progressive multiple sclerosis (PPMS) with T1 gadolinium staining lesions; and wherein the improvement in functional ability is measured by the Timed 25-Foot Walk (T-25FW) test or EDSS score.
A laser welding device comprising: a laser oscillator to which an incidence end of a fiber is connected; a welding head connected to an emission end of the fiber and configured to perform laser welding while condensing laser light emitted from the laser oscillator via the emission end and irradiating a workpiece with the laser light; a detection unit configured to detect presence or absence of a defect in the laser welding; and a controller configured to control operations of the laser oscillator and the welding head based on an output signal of the detection unit, the laser welding device being characterised in that when receiving, from the detection unit, an output signal indicating a defect at a first welding point on the workpiece during the laser welding of the workpiece, the controller performs control such that a supplementary laser welding point is performed at a predetermined position in a vicinity of the first welding point. a laser oscillator to which an incidence end of a fiber is connected; a welding head connected to an emission end of the fiber and configured to perform laser welding while condensing laser light emitted from the laser oscillator via the emission end and irradiating a workpiece with the laser light; a detection unit configured to detect presence or absence of a defect in the laser welding; and a controller configured to control operations of the laser oscillator and the welding head based on an output signal of the detection unit, the laser welding device being characterised in that when receiving, from the detection unit, an output signal indicating a defect at a first welding point on the workpiece during the laser welding of the workpiece, the controller performs control such that a supplementary laser welding point is performed at a predetermined position in a vicinity of the first welding point. the laser welding device being characterised in that when receiving, from the detection unit, an output signal indicating a defect at a first welding point on the workpiece during the laser welding of the workpiece, the controller performs control such that a supplementary laser welding point is performed at a predetermined position in a vicinity of the first welding point.
Air compressor system for providing pressurized air for the medical and dental field having a) a pressurized air tank and b) a compressor , characterized in that c) the air compressor system comprises a sensors unit which comprises in a mutual module housing : - a pressure measuring unit for measuring a pressure, - at least one further measuring unit for measuring another physical and/or chemical quantity, - an evaluation and control unit configured to control the pressure measuring unit for measuring the pressure and the further measuring unit for measuring the other physical and/or chemical quantity as well as to provide measurement data, and - an external interface for the output of the provided measurement data. a) a pressurized air tank and b) a compressor , characterized in that c) the air compressor system comprises a sensors unit which comprises in a mutual module housing : - a pressure measuring unit for measuring a pressure, - at least one further measuring unit for measuring another physical and/or chemical quantity, - an evaluation and control unit configured to control the pressure measuring unit for measuring the pressure and the further measuring unit for measuring the other physical and/or chemical quantity as well as to provide measurement data, and - an external interface for the output of the provided measurement data. - a pressure measuring unit for measuring a pressure, - at least one further measuring unit for measuring another physical and/or chemical quantity, - an evaluation and control unit configured to control the pressure measuring unit for measuring the pressure and the further measuring unit for measuring the other physical and/or chemical quantity as well as to provide measurement data, and - an external interface for the output of the provided measurement data.
A communication system , comprising: at least one baseband controller (106A, 106B, ... 106N) configured to process signals in a baseband frequency band; and at least one radio unit that is physically remote from the at least one baseband controller (106A, 106B, ... 106N), wherein each radio unit comprises: a plurality of virtual radio units (VRUs) (104A, 104B, ... 104M) in a physical housing of the respective radio unit , wherein each of the plurality of VRUs (104A, 104B, ... 104M) is implemented in a different processing core of a programmable processor ; a fronthaul interface configured to communicate with the at least one baseband controller (106A, 106B, ... 106N) using a packet-based protocol on behalf of each VRU (104A, 104B, ... 104M); wherein each VRU (104A, 104B, ... 104M) implemented in the programmable processor has a unique internet protocol (IP) address, wherein each VRU is individually addressable using the respective IP address; and at least one radio frequency front end unit configured to transmit from and receive on behalf of each of the VRUs (104A, 104B, ... 104M). at least one baseband controller (106A, 106B, ... 106N) configured to process signals in a baseband frequency band; and at least one radio unit that is physically remote from the at least one baseband controller (106A, 106B, ... 106N), wherein each radio unit comprises: a plurality of virtual radio units (VRUs) (104A, 104B, ... 104M) in a physical housing of the respective radio unit , wherein each of the plurality of VRUs (104A, 104B, ... 104M) is implemented in a different processing core of a programmable processor ; a fronthaul interface configured to communicate with the at least one baseband controller (106A, 106B, ... 106N) using a packet-based protocol on behalf of each VRU (104A, 104B, ... 104M); wherein each VRU (104A, 104B, ... 104M) implemented in the programmable processor has a unique internet protocol (IP) address, wherein each VRU is individually addressable using the respective IP address; and at least one radio frequency front end unit configured to transmit from and receive on behalf of each of the VRUs (104A, 104B, ... 104M). a plurality of virtual radio units (VRUs) (104A, 104B, ... 104M) in a physical housing of the respective radio unit , wherein each of the plurality of VRUs (104A, 104B, ... 104M) is implemented in a different processing core of a programmable processor ; a fronthaul interface configured to communicate with the at least one baseband controller (106A, 106B, ... 106N) using a packet-based protocol on behalf of each VRU (104A, 104B, ... 104M); wherein each VRU (104A, 104B, ... 104M) implemented in the programmable processor has a unique internet protocol (IP) address, wherein each VRU is individually addressable using the respective IP address; and at least one radio frequency front end unit configured to transmit from and receive on behalf of each of the VRUs (104A, 104B, ... 104M).
Mobile apparatus comprising a main frame , a sub-frame connected rotatably to the main frame and an operating arm connected to the sub-frame, wherein the sub-frame is provided with a seating or standing location for a driver, operating instruments controllable by a driver, and a bus system connected to the operating instruments; wherein the bus system runs from the sub-frame to the main frame; wherein an energy source or motor for displacing the mobile apparatus and a control unit therefor is arranged in the sub-frame or in the main frame and wherein said control unit is connected to the bus system ; characterized in that the main frame is provided with a lifting device to which an implement is connectable; wherein the mobile apparatus further comprises a drive for driving the lifting device and/or the implement, and a control unit connected to the bus system for controlling the drive on the basis of signals from the bus system; this such that the lifting device and/or the implement are controllable via the bus system using the operating instruments in the sub-frame. wherein the bus system runs from the sub-frame to the main frame; wherein an energy source or motor for displacing the mobile apparatus and a control unit therefor is arranged in the sub-frame or in the main frame and wherein said control unit is connected to the bus system ; characterized in that the main frame is provided with a lifting device to which an implement is connectable; wherein the mobile apparatus further comprises a drive for driving the lifting device and/or the implement, and a control unit connected to the bus system for controlling the drive on the basis of signals from the bus system; this such that the lifting device and/or the implement are controllable via the bus system using the operating instruments in the sub-frame.
A method for assigning control plane connectivity (CP) for a wireless device in a dual connectivity supported communications network , wherein the communications network comprises a first network node supporting a group of low frequency bands and a second network node supporting a group of high frequency bands , wherein frequency bands located lower than 1 GHz belong to the group of low frequency bands , wherein frequency bands located at 4 GHz or higher belong to the group of high frequency bands , and wherein frequency bands located from 1 GHz to 4 GHz either belong to the group of low frequency bands or to the group of high frequency bands , the method being performed by a control node , the method comprising: acquiring (S104) an uplink load level for the group of low frequency bands ; acquiring (S106) a first pathloss level between the wireless device and the first network node and a second pathloss level between the wireless device and the second network node ; and selecting (S108), based on the acquired uplink load level, the first pathloss level, and the second pathloss level, which one of the first network node and the second network node to provide control plane connectivity (CP) for the wireless device , characterized in that the first network node is selected to provide the control plane connectivity (CP) when the uplink load level for the group of low frequency bands is below a first predetermined level, and wherein which one of the first network node and the second network node to provide control plane connectivity (CP) is selected based on the first pathloss level and the second pathloss level when the uplink load level for the group of low frequency bands is above the first predetermined level. acquiring (S104) an uplink load level for the group of low frequency bands ; acquiring (S106) a first pathloss level between the wireless device and the first network node and a second pathloss level between the wireless device and the second network node ; and selecting (S108), based on the acquired uplink load level, the first pathloss level, and the second pathloss level, which one of the first network node and the second network node to provide control plane connectivity (CP) for the wireless device , characterized in that the first network node is selected to provide the control plane connectivity (CP) when the uplink load level for the group of low frequency bands is below a first predetermined level, and wherein which one of the first network node and the second network node to provide control plane connectivity (CP) is selected based on the first pathloss level and the second pathloss level when the uplink load level for the group of low frequency bands is above the first predetermined level.
A pharmaceutical composition comprising an effective amount of 4,5,6,7-tetrahydroisoxazolo(5,4-c)pyridin-3-ol (THIP) or a pharmaceutically effective salt thereof and a pharmaceutically acceptable carrier or excipient for use in a method of treating a human subject with Angelman syndrome, wherein the effective amount is 10 mg to 20 mg.
A method of enabling program code stored on target data processing devices, the method comprising: receiving an encrypted value of a permitted number of target data processing devices that are permitted to have program code stored on them enabled, and using a security data processing device to decrypt the encrypted value and store the decrypted value on the security data processing device; and receiving encrypted instructions for execution by the security data processing device; using the security data processing device to decrypt the encrypted instructions and store the decrypted instructions on the security data processing device, for each target data processing device, using the security data processing device to: determine whether the value of the permitted number of target data processing devices is greater than zero; if so, obtain a device identifier from the target data processing device; generate a licence key from the device identifier; store the licence key on the target data processing device; and decrement the value of the permitted number of target data processing devices. wherein using the security data processing device to generate the licence key from the device identifier comprises generating the licence key by execution of the decrypted instructions. receiving an encrypted value of a permitted number of target data processing devices that are permitted to have program code stored on them enabled, and using a security data processing device to decrypt the encrypted value and store the decrypted value on the security data processing device; and receiving encrypted instructions for execution by the security data processing device; using the security data processing device to decrypt the encrypted instructions and store the decrypted instructions on the security data processing device, for each target data processing device, using the security data processing device to: determine whether the value of the permitted number of target data processing devices is greater than zero; if so, obtain a device identifier from the target data processing device; generate a licence key from the device identifier; store the licence key on the target data processing device; and decrement the value of the permitted number of target data processing devices. wherein using the security data processing device to generate the licence key from the device identifier comprises generating the licence key by execution of the decrypted instructions. determine whether the value of the permitted number of target data processing devices is greater than zero; if so, obtain a device identifier from the target data processing device; generate a licence key from the device identifier; store the licence key on the target data processing device; and decrement the value of the permitted number of target data processing devices. wherein using the security data processing device to generate the licence key from the device identifier comprises generating the licence key by execution of the decrypted instructions.